mhurhangee/ep-ind-claims huggingface dataset:
A bionanocomposite comprising: decellularized tissue; and nanomaterial crosslinked with the decellularized tissue and functionalized with surface functional groups capable of bonding with tissue; the nanomaterial is gold nanoparticles, gold nanorods, gold nanofibers, silver nanoparticles, silver nanorods, silver nanofibers, platinum nanoparticles, platinum nanorods, platinum nanofibers, titania nanoparticles, titania nanorods, titania nanofibers, silica nanoparticles, silica nanorods, silica nanofibers, alumina nanoparticles, alumina nanorods, alumina nanofibers, calcium phosphate nanoparticles, calcium phosphate nanorods, calcium phosphate nanofibers, BaTiO3 nanoparticles, BaTiO3 nanorods, BaTiO3 nanofibers, polycaprolactone nanofibers, polyglycolic acid nanofibers, polylactic acid nanofibers, polylacticglycolic acid nanofibers, polydoxanone nanofibers, trimethylene carbonate nanofibers, or combinations thereof; wherein the gold nanoparticles are functionalized with -COOH groups, -OH groups, methionine, mercaptomethylamine, mercaptoethylamine, mercaptopropylamine, mercaptobutylamine, or a combination thereof, the silicon carbide nanowires are functionalized with COOH groups, OH groups, aminopropyl-triethoxysilane, plasma polymerization with allyl amine, plasma polymerization with acrylic acid, plasma polymerization with hydroxyethyl methacrylate, and the polycaprolactone nanofibers are functionalized other than by aminolysis. decellularized tissue; and nanomaterial crosslinked with the decellularized tissue and functionalized with surface functional groups capable of bonding with tissue; the nanomaterial is gold nanoparticles, gold nanorods, gold nanofibers, silver nanoparticles, silver nanorods, silver nanofibers, platinum nanoparticles, platinum nanorods, platinum nanofibers, titania nanoparticles, titania nanorods, titania nanofibers, silica nanoparticles, silica nanorods, silica nanofibers, alumina nanoparticles, alumina nanorods, alumina nanofibers, calcium phosphate nanoparticles, calcium phosphate nanorods, calcium phosphate nanofibers, BaTiO3 nanoparticles, BaTiO3 nanorods, BaTiO3 nanofibers, polycaprolactone nanofibers, polyglycolic acid nanofibers, polylactic acid nanofibers, polylacticglycolic acid nanofibers, polydoxanone nanofibers, trimethylene carbonate nanofibers, or combinations thereof; wherein the gold nanoparticles are functionalized with -COOH groups, -OH groups, methionine, mercaptomethylamine, mercaptoethylamine, mercaptopropylamine, mercaptobutylamine, or a combination thereof, the silicon carbide nanowires are functionalized with COOH groups, OH groups, aminopropyl-triethoxysilane, plasma polymerization with allyl amine, plasma polymerization with acrylic acid, plasma polymerization with hydroxyethyl methacrylate, and the polycaprolactone nanofibers are functionalized other than by aminolysis.
A method for wireless communications at a first user equipment that supports a radio access network, RAN, assisted rate adaptation capability enabling the first UE to operate at bit rates that exceed a guaranteed bit rate, the method comprising: configuring a session description protocol, SDP, parameter that indicates the RAN assisted rate adaptation capability of the UE; and receiving, at the first UE, a network capability notification from a first base station associated with the first UE, wherein the network capability notification indicates that the first base station also supports the RAN assisted rate adaptation capability; generating, at the first UE, a SDP message that includes the SDP parameter; and transmitting, from the first UE, the SDP message to a second endpoint, wherein the second endpoint includes one or both of a second UE and a second base station; and wherein the SDP message from the first UE indicates to the second endpoint that a first endpoint supports the RAN assisted rate capability, the first endpoint including one or more or both of the first UE and the first base station. configuring a session description protocol, SDP, parameter that indicates the RAN assisted rate adaptation capability of the UE; and receiving, at the first UE, a network capability notification from a first base station associated with the first UE, wherein the network capability notification indicates that the first base station also supports the RAN assisted rate adaptation capability; generating, at the first UE, a SDP message that includes the SDP parameter; and transmitting, from the first UE, the SDP message to a second endpoint, wherein the second endpoint includes one or both of a second UE and a second base station; and wherein the SDP message from the first UE indicates to the second endpoint that a first endpoint supports the RAN assisted rate capability, the first endpoint including one or more or both of the first UE and the first base station.
An apparatus for determining gaze direction information, comprising: a light source for forming illuminating light to an eye region of a user; optical element(s) configured to guide the illuminating light from the light source to the eye region, wherein the illuminating light is dynamically adjustable to generate a dynamic light beam on the eye region; a sensor configured to capture reflected light from the eye region and generate reflection eye data; at least one processor and at least one memory including computer program code; the at least one memory and the computer program code being configured, with the at least one processor, to cause the apparatus to: maintain settings comprising user profile information; adjust spectral power distribution of the light source receive the reflection eye data; and generate the gaze direction information based on the reflection eye data, characterized in that the spectral power distribution is adjusted based on the user profile information. a light source for forming illuminating light to an eye region of a user; optical element(s) configured to guide the illuminating light from the light source to the eye region, wherein the illuminating light is dynamically adjustable to generate a dynamic light beam on the eye region; a sensor configured to capture reflected light from the eye region and generate reflection eye data; at least one processor and at least one memory including computer program code; the at least one memory and the computer program code being configured, with the at least one processor, to cause the apparatus to: maintain settings comprising user profile information; adjust spectral power distribution of the light source receive the reflection eye data; and generate the gaze direction information based on the reflection eye data, characterized in that the spectral power distribution is adjusted based on the user profile information. maintain settings comprising user profile information; adjust spectral power distribution of the light source receive the reflection eye data; and generate the gaze direction information based on the reflection eye data, characterized in that the spectral power distribution is adjusted based on the user profile information.
A method to reduce power consumption of a differential switched-current line-driver comprising a plurality of cells and having a first output (dn_out) and a second output (dp_out) by eliminating output current that does not contribute to a required differential output signal, wherein each cell may have a cell current, Icell, and is controllable to be in any of at least four states: the first state being directing the cell current, Icell, to the first output (dn_out); the second state being directing the cell current, Icell, to the second output (dp_out); the third state being splitting the cell current, equally to the first and second outputs; and; the fourth state being disabling the cell current, Icell, so no current is directed to the first output or second output; the method comprising: performing a training process to determine the required output current for a desired differential drive, whilst maintaining a constant output current, by switching cells from the first state or the second state to the third state; and thereafter eliminating the output current that does not contribute to the required differential output current by reducing the total current but maintaining the same differential current by switching cells from the third state to the fourth state. the first state being directing the cell current, Icell, to the first output (dn_out); the second state being directing the cell current, Icell, to the second output (dp_out); the third state being splitting the cell current, equally to the first and second outputs; and; the fourth state being disabling the cell current, Icell, so no current is directed to the first output or second output; the method comprising: performing a training process to determine the required output current for a desired differential drive, whilst maintaining a constant output current, by switching cells from the first state or the second state to the third state; and thereafter eliminating the output current that does not contribute to the required differential output current by reducing the total current but maintaining the same differential current by switching cells from the third state to the fourth state. performing a training process to determine the required output current for a desired differential drive, whilst maintaining a constant output current, by switching cells from the first state or the second state to the third state; and thereafter eliminating the output current that does not contribute to the required differential output current by reducing the total current but maintaining the same differential current by switching cells from the third state to the fourth state.
Pod for the preparation of a beverage in a centrifugal brewing device by feeding liquid through said pod and rotating the pod along a rotating axis "I" in the device to produce centrifugal forces on the liquid traversing the pod thereby forcing a beverage out of the pod by such centrifugal forces, wherein the pod comprises containment walls containing beverage ingredients characterized in that the containment walls are essentially made of porous filtering material, i.e., at least 75%, preferably at least 90% of the surface of the containment walls comprise porous filtering material, and comprise a top wall from which a central funnel comprising liquid inlet openings extends inwardly in the pod.
A compound represented by formula or a pharmaceutically acceptable salt thereof, wherein, R 1 is selected from C 1-3 alkyl, R 2 is selected from H, F, Cl, Br, I, C 1-3 alkyl and cyclopropyl. R 1 is selected from C 1-3 alkyl, R 2 is selected from H, F, Cl, Br, I, C 1-3 alkyl and cyclopropyl.
Covering element (10, 30) comprising a carrier plate containing a mineral material and carrying on its front side a polymer-containing decorative layer (20 - 24), the covering element having complementary recesses and projections extending on its side edges, where the recesses and projections are formed respectively on side edges (17, 19) facing away from one another, so that they engage into one another when covering elements are adjacent, the recesses and projections being disposed in the carrier plate, wherein the decorative layer (20 - 24) comprises at least a base layer comprising colour pigments, wherein the base layer is applied to the carrier plate, and wherein the base layer bears at least partially at least one digital printing layer containing colour pigment, the digital printing layer bearing at least one polymer-containing transparent outer layer, characterized in that the carrier plate consists of mineral elements in the form of flour or particles which are pressed with natural fibres.
A method for modifying a surface of a polymer substrate by ion bombardment, wherein - the ions are generated by means of a magnetic field-assisted glow discharge in a process gas, - the magnetic field-assisted glow discharge is generated by means of a magnetron (8, 9) which comprises an electrode and at least one magnet for generating the magnetic field, - the process gas comprises at least one electronegative component, such that negative ions are generated in the magnetic field-assisted glow discharge, - the negative ions, which are generated at the surface of the electrode, are accelerated towards the polymer substrate by an electrical voltage applied to the electrode, - the negative ions impinging on the polymer substrate bring about the modification of the surface of the polymer substrate, and - a surface texture which extends to a depth of at least 50 nm into the polymer substrate is produced on the surface of the polymer substrate by means of the ion bombardment and - the electrical voltage has a frequency of between 1 kHz and 250 kHz. - the ions are generated by means of a magnetic field-assisted glow discharge in a process gas, - the magnetic field-assisted glow discharge is generated by means of a magnetron (8, 9) which comprises an electrode and at least one magnet for generating the magnetic field, - the process gas comprises at least one electronegative component, such that negative ions are generated in the magnetic field-assisted glow discharge, - the negative ions, which are generated at the surface of the electrode, are accelerated towards the polymer substrate by an electrical voltage applied to the electrode, - the negative ions impinging on the polymer substrate bring about the modification of the surface of the polymer substrate, and - a surface texture which extends to a depth of at least 50 nm into the polymer substrate is produced on the surface of the polymer substrate by means of the ion bombardment and - the electrical voltage has a frequency of between 1 kHz and 250 kHz.
A high-efficiency petroleum degrading bacterium TDYN1 T, identified as Falsochrobactrum sp., is deposited in the China General Microbiological Culture Collection Center, with a deposit number CGMCC No. 18061.
A non-phospholipid paucilamellar liposome comprising a cavity having encapsulated therein hyaluronic acid, wherein said liposome is about 50 to 950 nm in size, wherein the hyaluronic acid is cross-linked.
Sling gear for single-arm operation by a remotely controlled gripper, in particular of a remotely controlled vehicle, with a closure that can be moved from a closed position into an open position, a sling body that is closed by the closure in the closed position and open in the open position, and a push-button for opening the closure, the push-button containing a gear section which couples the closure with the push-button by transmitting movement, wherein the push-button has a locking area, which engages with the closure in the closed position and locks the closure in the closed position, wherein the push-button protrudes on one side from a base body of the sling gear, characterised in that the push-button is equipped, on the other side, with a traction mechanism receptacle for attaching a traction mechanism.
Method for dividing destination calls between elevator groups in an elevator system, which comprises at least two elevator groups, which elevator groups have one or more shared floors and also destination call appliances on at least the aforementioned shared floors for receiving destination calls given by passengers, which method comprises the phases: the aforementioned destination call appliances are connected to the group controls of the aforementioned elevator groups for conveying destination call information to the elevator groups; the division criteria of destination calls are defined; and the destination calls given by passengers are divided between the elevator groups on the basis of the aforementioned division criteria, characterized in that the destination call appliances are arranged to define the elevator group serving a destination call on the basis of the aforementioned division criteria.
A polyoxometalate catalyst comprising a metal oxide represented by the Formulas below Mo 12 V 5.0 W 2.0 Nb 0.1 Sr 1.0 Co 1.0 having a V 4+ /(V 4+ N 5+) ratio of 0.63, as determined by XPS Mo 12 V 3.0 W 3.0 Nb 0.1 Sr 1.0 Co 0.5 Fe 0.5 having a V 4+ /(V 4+ /V 5+) ratio of 0.65, as determined by XPS, and Mo 12 V 1.5 W 2.0 Nb 0.1 Ni 4.0 having a V 4+ /(V 4+ /V 5+) ratio of 0.52, as determined by XPS Mo 12 V 5.0 W 2.0 Nb 0.1 Sr 1.0 Co 1.0 having a V 4+ /(V 4+ N 5+) ratio of 0.63, as determined by XPS Mo 12 V 3.0 W 3.0 Nb 0.1 Sr 1.0 Co 0.5 Fe 0.5 having a V 4+ /(V 4+ /V 5+) ratio of 0.65, as determined by XPS, and Mo 12 V 1.5 W 2.0 Nb 0.1 Ni 4.0 having a V 4+ /(V 4+ /V 5+) ratio of 0.52, as determined by XPS
Built-in multi-purpose outlet unit comprising at least one container casing (C, D) and at least one electric/electronic circuit having at least one USB socket and being suited to transform mains alternate current at 220V or 110V into 5V direct current, delivering it to specified contacts of the USB socket, said container casing (C, D) comprising: • a first rear part substantially parallelepiped-shaped and with an open side suited to contain said electric/electronic circuit and to be housed in common built-in container casings installed in walls; • a second front part suited to be coupled with and to close the open side of said first rear part and having the shape of a common outlet unit fixable to supporting plates, said second front part being provided with front holes and/or openings suited to house the at least one USB socket of the electric/electronic circuit, characterized in that said second front part of said container casing (C, D) comprises at least one parallelepiped element having the shape of a keystone unit, provided with the front holes or openings suited to house the USB sockets of the electric/electronic circuit or to allow the passage of a USB plug, and wherein said parallelepiped element in the shape of a keystone unit is provided with couplings on its perimeter for fixing it to adapters on the supporting plates of the wall sockets. • a first rear part substantially parallelepiped-shaped and with an open side suited to contain said electric/electronic circuit and to be housed in common built-in container casings installed in walls; • a second front part suited to be coupled with and to close the open side of said first rear part and having the shape of a common outlet unit fixable to supporting plates, said second front part being provided with front holes and/or openings suited to house the at least one USB socket of the electric/electronic circuit,
An aircraft engine comprising: a rotatable blade rotating at a first angular velocity about a rotational axis, the rotational axis aligned with a flow direction, characterized by: the rotatable blade having a surface divided into a first ice-accumulating surface (20, 20') configured to collect ice, and a first shadow surface (22, 22') configured to resist the collection of ice; a first flange (16, 16') disposed between the first ice accumulating surface and the first shadow surface, the first flange having a first ice accepting surface (26, 26') which intersects the first ice accumulating surface and defines a first ice capturing volume (28, 28') above the first ice accumulating surface, wherein the first ice accepting surface and first ice accumulating surface are configured to incrementally capture ice within the first ice capturing volume. a rotatable blade rotating at a first angular velocity about a rotational axis, the rotational axis aligned with a flow direction, characterized by: the rotatable blade having a surface divided into a first ice-accumulating surface (20, 20') configured to collect ice, and a first shadow surface (22, 22') configured to resist the collection of ice; a first flange (16, 16') disposed between the first ice accumulating surface and the first shadow surface, the first flange having a first ice accepting surface (26, 26') which intersects the first ice accumulating surface and defines a first ice capturing volume (28, 28') above the first ice accumulating surface, wherein the first ice accepting surface and first ice accumulating surface are configured to incrementally capture ice within the first ice capturing volume. the rotatable blade having a surface divided into a first ice-accumulating surface (20, 20') configured to collect ice, and a first shadow surface (22, 22') configured to resist the collection of ice; a first flange (16, 16') disposed between the first ice accumulating surface and the first shadow surface, the first flange having a first ice accepting surface (26, 26') which intersects the first ice accumulating surface and defines a first ice capturing volume (28, 28') above the first ice accumulating surface, wherein the first ice accepting surface and first ice accumulating surface are configured to incrementally capture ice within the first ice capturing volume.
A device for processing the soil comprising: - a frame which carries at least one processing tool; - at least one resilient element which has a first end portion which is associated with the processing tool and a second end portion which is associated with the frame by means of connection devices; wherein the connection devices comprise: - at least a first laminar element and at least a second laminar element, the second end portion of the resilient element being interposed between the first laminar element and the second laminar element; characterized in that it comprises at least one separator device which is arranged between the first laminar element and the second laminar element, in the region of the second end portion of the resilient element, and which is capable of forming at least one separation between the second end portion and the laminar elements (7, 8) which defines a cavity between the first laminar element and the second laminar element (7, 8), which is configured so that the resilient element can bend towards/away from the first or second laminar element (7, 8) inside the cavity itself. - a frame which carries at least one processing tool; - at least one resilient element which has a first end portion which is associated with the processing tool and a second end portion which is associated with the frame by means of connection devices; - at least a first laminar element and at least a second laminar element, the second end portion of the resilient element being interposed between the first laminar element and the second laminar element; characterized in that it comprises at least one separator device which is arranged between the first laminar element and the second laminar element, in the region of the second end portion of the resilient element, and which is capable of forming at least one separation between the second end portion and the laminar elements (7, 8) which defines a cavity between the first laminar element and the second laminar element (7, 8), which is configured so that the resilient element can bend towards/away from the first or second laminar element (7, 8) inside the cavity itself.
Fastening device for fastening a sprocket assembly on the driver on a bicycle rear wheel hub of a bicycle; with the sprocket assembly, a ring element and a threaded element, and with first knurled elements on the ring element and second knurled elements on the threaded element, the knurled elements (5, 6) together forming a knurled toothing system; the sprocket assembly and the ring element being braced against one another in the axial direction by way of the threaded element; a rotation limiting apparatus being provided between the ring element and the sprocket assembly, which rotation limiting apparatus consists of a first rotation limiter on the ring element and of a second rotation limiter on the sprocket assembly, which rotation limiters engage into one another and limit the rotation capability between the ring element and the sprocket assembly; characterized in that, furthermore, a smallest sprocket is connected in one piece to the sprocket assembly.