mhurhangee/ep-ind-claims huggingface dataset:
A process for making a Ficus cell serum fraction composition, said process comprising: a. separating ficus cell juice from clean, fresh, un-wilted ficus leaves to obtain fresh ficus cell juice, wherein no exogenous liquid is added prior or during said separating; b. filtering said fresh ficus cell juice to obtain fiber-free cell juice; and c. fractionating said fiber-free cell juice to obtain Ficus Serum Fraction, wherein said fractionating comprises: removing chlorophyll from said fiber-free cell juice to obtain Supernatant I; removing pigments and proteins from Supernatant I to form Ficus Serum Fraction; and optionally adding stabilizer to said Ficus Serum Fraction. a. separating ficus cell juice from clean, fresh, un-wilted ficus leaves to obtain fresh ficus cell juice, wherein no exogenous liquid is added prior or during said separating; b. filtering said fresh ficus cell juice to obtain fiber-free cell juice; and c. fractionating said fiber-free cell juice to obtain Ficus Serum Fraction, wherein said fractionating comprises: removing chlorophyll from said fiber-free cell juice to obtain Supernatant I; removing pigments and proteins from Supernatant I to form Ficus Serum Fraction; and optionally adding stabilizer to said Ficus Serum Fraction. removing chlorophyll from said fiber-free cell juice to obtain Supernatant I; removing pigments and proteins from Supernatant I to form Ficus Serum Fraction; and optionally adding stabilizer to said Ficus Serum Fraction.
A fixing member comprising: a surface layer containing polytetrafluoroethylene (PTFE) and a fluorine resin having a melting point lower than that of the PTFE, wherein in a DSC curve obtained by heating a sample of the surface layer at a temperature raising rate of 20°C/min with a differential scanning calorimeter, an endothermic peak 1 having a peak top in the temperature range of 330°C or more and 340°C or less, and an endothermic peak 2 having a peak top in the temperature range lower than that of the endothermic peak 1 are present, and a sum ΔH of an amount of heat of fusion based on the endothermic peak 1 and an amount of heat of fusion based on the endothermic peak 2 is 40 J/g or more and 55 J/g or less. a surface layer containing polytetrafluoroethylene (PTFE) and a fluorine resin having a melting point lower than that of the PTFE, wherein in a DSC curve obtained by heating a sample of the surface layer at a temperature raising rate of 20°C/min with a differential scanning calorimeter, an endothermic peak 1 having a peak top in the temperature range of 330°C or more and 340°C or less, and an endothermic peak 2 having a peak top in the temperature range lower than that of the endothermic peak 1 are present, and a sum ΔH of an amount of heat of fusion based on the endothermic peak 1 and an amount of heat of fusion based on the endothermic peak 2 is 40 J/g or more and 55 J/g or less.
A method of operating a mobile transceiver, comprising: waking up the mobile transceiver from a low power mode in response to a wakeup event; determining a location of the mobile transceiver; determining whether the determined location of the mobile transceiver corresponds to a location in a travel itinerary; when the determined location corresponds to a location in the travel itinerary, determining whether a subscriber identity module, SIM, card from a plurality of SIM cards (712, 714) has been pre-selected for the determined location; when a SIM card has been pre-selected for the determined location, selecting the pre-selected SIM card as a first SIM card, activating a cellular transceiver using the first SIM card, and searching, via the cellular transceiver, for available wireless services associated with the first SIM card; and when a wireless service is available, sending at least a portion of a data log to an asset tracking service using the wireless service. waking up the mobile transceiver from a low power mode in response to a wakeup event; determining a location of the mobile transceiver; determining whether the determined location of the mobile transceiver corresponds to a location in a travel itinerary; when the determined location corresponds to a location in the travel itinerary, determining whether a subscriber identity module, SIM, card from a plurality of SIM cards (712, 714) has been pre-selected for the determined location; when a SIM card has been pre-selected for the determined location, selecting the pre-selected SIM card as a first SIM card, activating a cellular transceiver using the first SIM card, and searching, via the cellular transceiver, for available wireless services associated with the first SIM card; and activating a cellular transceiver using the first SIM card, and searching, via the cellular transceiver, for available wireless services associated with the first SIM card; and when a wireless service is available, sending at least a portion of a data log to an asset tracking service using the wireless service.
Large manipulator, in particular truck-mounted concrete pump, with a turntable which can be rotated about a vertical axis by means of a rotary drive and which is arranged on a chassis, an articulated boom which comprises two or more boom segments (5a, 5b, 5c, 5d), wherein the boom segments (5a, 5b, 5c, 5d) are connected in a pivotably movable manner by way of articulation joints to the turntable or boom segment (5a, 5b, 5c, 5d) which is adjacent in each case by means of one drive (6a, 6b, 6c, 6d) each, with a control device for the boom movement which actuates the drives (6, 6a, 6b, 6c, 6d) in normal operation, and a boom sensor system for detecting the position of at least one point on the articulated boom or a pivot angle ( φ 1, φ 2, φ 3, φ 4) of at least one articulation joint, wherein the control device is set up to limit the speed of the boom movement dependent upon the current output signals of the boom sensor system, characterised in that the drives (6, 6a, 6b, 6c, 6d) in an emergency mode are manually controllable, wherein at least one limitation means (11, 12, 13, 14) is provided which in emergency operation limits the speed of movement of at least one of the drives (6, 6a, 6b, 6c, 6d) to a fixed maximum value.
A lithium secondary battery comprising: an electrode assembly comprising a cathode comprising a cathode mixture layer formed on a cathode current collector, an anode comprising an anode mixture layer formed on an anode current collector, and a separator disposed between the cathode and the anode; and an electrolyte, wherein the anode comprises lithium titanium oxide as an anode active material, the cathode comprises, as a cathode active material, a spinel-structure lithium manganese composite oxide represented by Formula 3 below: Li x Ni y Mn 2-y O 4 wherein 0.9≤x≤1.2 and 0.4≤y≤0.5, the lengths of the four sides of the cathode mixture layer have greater length than the lengths of the four sides of the anode mixture layer and thus the cathode mixture layer has a greater area than the anode mixture layer, the area of the anode mixture layer is 80% to less than 100% the area of the cathode mixture layer, and characterised in that the capacity of the anode is 90% to less than 100% the capacity of the cathode.
Apparatus (10; 30; 50; 60) for mapping a first input channel and a second input channel of an input channel configuration to output channels (16, 42, 44) of an output channel configuration, wherein each input channel and each output channel has a direction in which an associated loudspeaker is located relative to a central listener position, wherein the first and second input channels (12, 14) have different elevation angles relative to a horizontal listener plane, wherein the apparatus is configured to: map the first input channel to a first output channel of the output channel configuration; and despite of the fact that an azimuth angle deviation between a direction of the second input channel and a direction of the first output channel is less than an azimuth angle deviation between a direction of the second input channel and a second output channel and/or is less than an azimuth angle deviation between the direction of the second input channel and the direction of a third output channel, map the second input channel to the second and third output channels (42, 44) by panning (52, 62) between the second and third output channels (42, 44) to generate a phantom source at the position of the loudspeaker associated with the first output channel. map the first input channel to a first output channel of the output channel configuration; and despite of the fact that an azimuth angle deviation between a direction of the second input channel and a direction of the first output channel is less than an azimuth angle deviation between a direction of the second input channel and a second output channel and/or is less than an azimuth angle deviation between the direction of the second input channel and the direction of a third output channel, map the second input channel to the second and third output channels (42, 44) by panning (52, 62) between the second and third output channels (42, 44) to generate a phantom source at the position of the loudspeaker associated with the first output channel.
A wireless node (102A - 102F) comprising: at least one processor; memory storing computer program code; wherein the memory storing the computer program code is configured to, with the at least one processor, cause the wireless node (102A - 102F) to perform the following steps: upon receipt by the receiving wireless node (102A - 102F) of a message associated with a group of wireless nodes, compare, by the receiving wireless node (102A - 102F), at least one indicium in the message against other indicia determined on basis of radio channel characteristics; the radio channel characteristics are sensed through physical carrier sensing and virtual carrier sensing; and to direct a response, by the receiving wireless node (102A - 102F), to the message only if the the at least one indicium in the message matches one of the indicia within a specified threshold. at least one processor; memory storing computer program code; wherein the memory storing the computer program code is configured to, with the at least one processor, cause the wireless node (102A - 102F) to perform the following steps: upon receipt by the receiving wireless node (102A - 102F) of a message associated with a group of wireless nodes, compare, by the receiving wireless node (102A - 102F), at least one indicium in the message against other indicia determined on basis of radio channel characteristics; the radio channel characteristics are sensed through physical carrier sensing and virtual carrier sensing; and to direct a response, by the receiving wireless node (102A - 102F), to the message only if the the at least one indicium in the message matches one of the indicia within a specified threshold.
A hybrid capacitor, comprising: at least a positive electrode comprising one or both of a carbon material and a metal oxide; a lithium composite negative electrode; and a neutral aqueous electrolyte filled between the positive electrode and the lithium composite negative electrode, characterized in that the lithium composite negative electrode is a laminar electrode comprising a lithium ion conductive solid electrolyte, an alginate gel electrolyte, and a lithium-doped carbon. at least a positive electrode comprising one or both of a carbon material and a metal oxide; a lithium composite negative electrode; and a neutral aqueous electrolyte filled between the positive electrode and the lithium composite negative electrode, characterized in that the lithium composite negative electrode is a laminar electrode comprising a lithium ion conductive solid electrolyte, an alginate gel electrolyte, and a lithium-doped carbon.
Nose bar for a conveyor element, for a conveyor belt, comprising: - a frame part, having a head end comprising a gutter with a circle segment shaped cross section; - a rod with a circular cross section, having a radius equal to the circle segment of the cross section, wherein the conveyor belt is configured to be tensioned around the rod; and characterised in that, the circular surface of the rod is arranged directly against the gutter of the frame part, substantially over the length of the rod or the gutter, whichever is longer, so that the rod is received form fittingly in the gutter. - a frame part, having a head end comprising a gutter with a circle segment shaped cross section; - a rod with a circular cross section, having a radius equal to the circle segment of the cross section, wherein the conveyor belt is configured to be tensioned around the rod; and
An integrated circuit device (200, 300, 500) comprising: a memory; and a first power interface (230, 330, 535); characterised in that the device further comprises: a second power interface (240, 340, 545); a determining circuit (220,320,520) for determining whether said first power interface (230, 330, 535) or second power interface (240, 340, 545) is receiving power; and at least one control circuit (211, 311) for changing a behaviour of said memory in order to manage power consumption if it is determined by said determining circuit (220, 320, 520) that said first power interface (230, 330, 535) is receiving power; wherein said first power interface (230, 330, 535) is connectable to a depletable power source and said second power interface (240, 340, 545) is connectable to a non-depletable power source, or said first power interface (230, 330, 535) is connectable to a current-dependent power source and said second power interface (240, 340, 545) is connectable to a current-independent power source. a memory; and a first power interface (230, 330, 535); characterised in that the device further comprises: a second power interface (240, 340, 545); a determining circuit (220,320,520) for determining whether said first power interface (230, 330, 535) or second power interface (240, 340, 545) is receiving power; and at least one control circuit (211, 311) for changing a behaviour of said memory in order to manage power consumption if it is determined by said determining circuit (220, 320, 520) that said first power interface (230, 330, 535) is receiving power; wherein said first power interface (230, 330, 535) is connectable to a depletable power source and said second power interface (240, 340, 545) is connectable to a non-depletable power source, or said first power interface (230, 330, 535) is connectable to a current-dependent power source and said second power interface (240, 340, 545) is connectable to a current-independent power source. a second power interface (240, 340, 545); a determining circuit (220,320,520) for determining whether said first power interface (230, 330, 535) or second power interface (240, 340, 545) is receiving power; and at least one control circuit (211, 311) for changing a behaviour of said memory in order to manage power consumption if it is determined by said determining circuit (220, 320, 520) that said first power interface (230, 330, 535) is receiving power; wherein said first power interface (230, 330, 535) is connectable to a depletable power source and said second power interface (240, 340, 545) is connectable to a non-depletable power source, or said first power interface (230, 330, 535) is connectable to a current-dependent power source and said second power interface (240, 340, 545) is connectable to a current-independent power source.
A method in a separation system (1; 101; 201; 701; 801) for separating a biomolecule from a cell culture, comprising the steps of: - providing a feed from a cell culture (3; 103; 203; BP) comprising said biomolecule to a magnetic separator (5; 105; 205; MS) and providing to the magnetic separator magnetic beads comprising ligands capable of binding this biomolecule; - separating by the magnetic separator said magnetic beads with bound biomolecules from the rest of the feed; - forwarding said magnetic beads as a slurry with an added buffer to an elution cell (7; 107; 207; EC),; - packing the slurry of magnetic beads in the elution cell (7; 107; 207) to provide a bed of magnetic beads within the elution cell with a void volume less than 60%; and - eluting the bound biomolecules in the elution cell. - providing a feed from a cell culture (3; 103; 203; BP) comprising said biomolecule to a magnetic separator (5; 105; 205; MS) and providing to the magnetic separator magnetic beads comprising ligands capable of binding this biomolecule; - separating by the magnetic separator said magnetic beads with bound biomolecules from the rest of the feed; - forwarding said magnetic beads as a slurry with an added buffer to an elution cell (7; 107; 207; EC),; - packing the slurry of magnetic beads in the elution cell (7; 107; 207) to provide a bed of magnetic beads within the elution cell with a void volume less than 60%; and - eluting the bound biomolecules in the elution cell.
A hot-pressed steel sheet member, comprising: a chemical composition represented by, in mass%: C: 0.10% to 0.24%; Si: 0.001% to 2.0%; Mn: 1.2% to 2.3%; sol. Al: 0.001% to 1.0%; Ti: 0.060% to 0.20%; P: 0.05% or less; S: 0.01% or less; N: 0.01% or less; Nb: 0% to 0.20%; V: 0% to 0.20%; Cr: 0% to 1.0%; Mo: 0% to 0.15%; Cu: 0% to 1.0%; Ni: 0% to 1.0%; Ca: 0% to 0.01%; Mg: 0% to 0.01%; REM: 0% to 0.01%; Zr: 0% to 0.01%; B: 0% to 0.005%; Bi: 0% to 0.01%; and balance: Fe and impurities; and a steel microstructure represented by, in area%: ferrite: 10% to 70%; martensite: 30% to 90%; and a total area ratio of ferrite and martensite: 90% to 100%, wherein 90% or more of all Ti in steel is precipitated, and wherein a tensile strength of the hot-pressed steel sheet member is 980 MPa or more. a chemical composition represented by, in mass%: C: 0.10% to 0.24%; Si: 0.001% to 2.0%; Mn: 1.2% to 2.3%; sol. Al: 0.001% to 1.0%; Ti: 0.060% to 0.20%; P: 0.05% or less; S: 0.01% or less; N: 0.01% or less; Nb: 0% to 0.20%; V: 0% to 0.20%; Cr: 0% to 1.0%; Mo: 0% to 0.15%; Cu: 0% to 1.0%; Ni: 0% to 1.0%; Ca: 0% to 0.01%; Mg: 0% to 0.01%; REM: 0% to 0.01%; Zr: 0% to 0.01%; B: 0% to 0.005%; Bi: 0% to 0.01%; and balance: Fe and impurities; and C: 0.10% to 0.24%; Si: 0.001% to 2.0%; Mn: 1.2% to 2.3%; sol. Al: 0.001% to 1.0%; Ti: 0.060% to 0.20%; P: 0.05% or less; S: 0.01% or less; N: 0.01% or less; Nb: 0% to 0.20%; V: 0% to 0.20%; Cr: 0% to 1.0%; Mo: 0% to 0.15%; Cu: 0% to 1.0%; Ni: 0% to 1.0%; Ca: 0% to 0.01%; Mg: 0% to 0.01%; REM: 0% to 0.01%; Zr: 0% to 0.01%; B: 0% to 0.005%; Bi: 0% to 0.01%; and balance: Fe and impurities; and a steel microstructure represented by, in area%: ferrite: 10% to 70%; martensite: 30% to 90%; and a total area ratio of ferrite and martensite: 90% to 100%, ferrite: 10% to 70%; martensite: 30% to 90%; and a total area ratio of ferrite and martensite: 90% to 100%, wherein 90% or more of all Ti in steel is precipitated, and wherein a tensile strength of the hot-pressed steel sheet member is 980 MPa or more.
Tire profile of a pneumatic tire of an automobile, said tire profile comprising a tread portion comprising at least one sipe, the sipe comprising an extension in a width direction and a depth in a radial direction, wherein the sipe comprises a first portion, a second portion arranged radially inward of the first portion and at least one further portion, wherein the further portion is connected to a portion arranged above the further portion in the radial direction at their connecting line, wherein the sipe comprises a first part, a second part arranged directly besides the first part in the width direction and at least one third part directly adjacent to the second part in the width direction, characterized in that the first part is inclined to the width direction by an acute angle β 1, the second part is inclined to the width direction by an acute angle β 2 different to β 1 and the third part is inclined to the width direction by an acute angle β 3 different to β 1 and different to β 2, wherein the mathematical values of β 1 and β 2 are both positive or negative along at least a part of the radial direction and/or the mathematical values of β 2 and β 3 are both positive or negative along at least a part of the radial direction, wherein the first part and the second part are inclined to each other along their connecting line by an angle η 1, wherein the second part and the third part are inclined to each other along their connecting line by an angle η 2, wherein the angle η 1 and/or the angle η 2 changes along the width direction continuously in a range of 90° ≤ η 1 ≤ 300° and/or in a range of 90° ≤ η 2 ≤ 300°.
A method of wireless communication of a user equipment, UE, including a receiver, comprising: changing a mode of operation from a first signal-to-noise ratio, SNR, mode to an increased SNR mode, the mode of operation being changed by adjusting a gain state of at least one of a low-noise amplifier or a baseband amplifier within the receiver; sending channel quality information, CQI, to a base station indicating an ability to receive data at the increased SNR; and receiving the data from the base station according to a higher order modulation and coding scheme, MCS, corresponding to the increased SNR when the base station is capable of providing the data at the higher order MCS. changing a mode of operation from a first signal-to-noise ratio, SNR, mode to an increased SNR mode, the mode of operation being changed by adjusting a gain state of at least one of a low-noise amplifier or a baseband amplifier within the receiver; sending channel quality information, CQI, to a base station indicating an ability to receive data at the increased SNR; and receiving the data from the base station according to a higher order modulation and coding scheme, MCS, corresponding to the increased SNR when the base station is capable of providing the data at the higher order MCS.
A microsphere containment system for storing radioactive microspheres including a diamagnetic material, the system comprising: a microsphere container comprising walls (12, 14, 16) that define a containment space in the microsphere container, the walls (12, 14, 16) comprising at least one magnetic component configured to produce a magnetic field within the containment space; wherein the containment space is configured so that microspheres including a diamagnetic material, when stored within the containment space, interact with the magnetic field within the containment space in a manner that prevents direct contact of the microspheres with the walls of the microsphere container, and wherein the system further comprises: radioactive microspheres stored within the containment space, the radioactive microspheres comprising a diamagnetic material. a microsphere container comprising walls (12, 14, 16) that define a containment space in the microsphere container, the walls (12, 14, 16) comprising at least one magnetic component configured to produce a magnetic field within the containment space; wherein the containment space is configured so that microspheres including a diamagnetic material, when stored within the containment space, interact with the magnetic field within the containment space in a manner that prevents direct contact of the microspheres with the walls of the microsphere container, and wherein the system further comprises: radioactive microspheres stored within the containment space, the radioactive microspheres comprising a diamagnetic material.
Oil pan for engines and/or transmissions with a filter unit which is arranged on the inner surface for filtering engine and/or transmission oil, characterized in that the filter unit is fastened to the oil pan by means of at least one magnetic holder (3, 3a) as a permanently magnetic, single-piece component, the magnetic holder (3, 3a) likewise serving for filtering metallic contaminants out of the engine and/or transmission oil to be filtered, and the magnetic holder (3, 3a) bringing about positively locking fastening of the filter unit to the oil pan, and the positively locking fastening taking place by means of latching elements (17, 25) which are configured on the magnetic holder (3, 3a) and/or which act on the magnetic holder (3, 3a).