mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling transmit power of a wireless transmit receive unit, WTRU, comprising: receiving signaling indicating an uplink, UL, resource assignment, a power control, PC, correction command and an assigned modulation coding set, MCS; determining a transmit power based on a combination of a power component corresponding to a bandwidth of the UL resource assignment, an open loop PC component, a closed loop PC component and a power offset, wherein the open loop PC component comprises a cell specific open loop PC nominal component and a pathloss compensation component based on a filtered pathloss estimate and a pathloss compensation factor, wherein the closed loop PC component comprises a correction factor, wherein the correction factor is based on the PC correction command, and wherein the power offset is related to the assigned MCS; and applying the transmit power. receiving signaling indicating an uplink, UL, resource assignment, a power control, PC, correction command and an assigned modulation coding set, MCS; determining a transmit power based on a combination of a power component corresponding to a bandwidth of the UL resource assignment, an open loop PC component, a closed loop PC component and a power offset, wherein the open loop PC component comprises a cell specific open loop PC nominal component and a pathloss compensation component based on a filtered pathloss estimate and a pathloss compensation factor, wherein the closed loop PC component comprises a correction factor, wherein the correction factor is based on the PC correction command, and wherein the power offset is related to the assigned MCS; and applying the transmit power.
Sounding board for musical instruments, comprising: - a first plurality of planks in which each plank of said first plurality of planks is provided with respective longitudinal sides (2ia, 2ib); wherein said planks of said first plurality of planks are mutually approached, each one at the respective longitudinal sides (2ia, 2ib), in order to form a first panel of said sounding board; - a second plurality of planks in which each plank of said second plurality of planks is provided with respective longitudinal sides (3ia, 3ib); wherein said planks of said second plurality of planks are mutually approached each one at the respective longitudinal sides (3ia, 3ib), in order to form a second panel of said sounding board; wherein said first and second panel (P1, P2) are mutually overlapping with the respective planks (2i, 3i) extending along the same angled direction of said sounding board; characterized in that said first and said second panel (P1, P2) are connected one to another through an adhesive; and said planks of said first plurality of planks are staggered with respect to said planks of said second plurality of planks, so that said longitudinal sides (2ia, 2ib) of each one of said planks of said first plurality of planks are misaligned with respect to said longitudinal sides (3ia, 3ib) of each one of said planks of said second plurality of planks. - a first plurality of planks in which each plank of said first plurality of planks is provided with respective longitudinal sides (2ia, 2ib); wherein said planks of said first plurality of planks are mutually approached, each one at the respective longitudinal sides (2ia, 2ib), in order to form a first panel of said sounding board; - a second plurality of planks in which each plank of said second plurality of planks is provided with respective longitudinal sides (3ia, 3ib); wherein said planks of said second plurality of planks are mutually approached each one at the respective longitudinal sides (3ia, 3ib), in order to form a second panel of said sounding board;
Device for transferring data from and to at least one terminal, wherein the device comprises at least one apparatus for providing a terminal radio network for transferring data between the terminal and the device, wherein the device comprises at least one apparatus for transferring data to at least one external apparatus, wherein the device comprises at least one control and evaluation apparatus, wherein the at least one control and evaluation apparatus is designed as an IMS controller or provides an IMS controller, characterised in that the device provides an intermediate network, which, apart from the device. does not comprise any further nodes, and wherein the intermediate network forms a roving network.
A three-dimensional data encoding method, comprising: calculating coefficient values by transforming pieces of attribute information of three-dimensional points included in point cloud data, wherein the attribute information includes any of color and reflectance; generating a second code sequence; generating a bitstream including the second code sequence; characterized by the second code sequence including first information and second information, the first information indicating by an indicator a total number of zero coefficient values consecutive in a first code sequence in which the coefficient values are arranged, the second information indicating by a respective flag whether each of the coefficient values is 0, and the zero coefficient values being included in the coefficient values and having a value of 0. calculating coefficient values by transforming pieces of attribute information of three-dimensional points included in point cloud data, wherein the attribute information includes any of color and reflectance; generating a second code sequence; generating a bitstream including the second code sequence; characterized by the second code sequence including first information and second information, the first information indicating by an indicator a total number of zero coefficient values consecutive in a first code sequence in which the coefficient values are arranged, the second information indicating by a respective flag whether each of the coefficient values is 0, and the zero coefficient values being included in the coefficient values and having a value of 0.
Air vent comprising a seat provided with an air duct and a diffusion element provided with a first grating fitted to diffuse a flow of air (E1, E4) in a direction substantially parallel to a longitudinal axis (X-X') of the air duct, wherein the diffusion element is capable of being mounted in at least one position in relation to the seat, in which position it defines with the seat passages for a flow of air (E2, E3) radial to the longitudinal axis (X-X') of the air duct, and the diffusion element is movable parallel to the longitudinal axis (X-X') of the air duct and in relation to the seat between a first position (Figure 2) in which the radial openings are closed and at least a second position (Figures 3 and 4) in which the radial openings are open, said vent comprising a second grating, which is movable in relation to the diffusion element between a first position (Figures 2 and 4) in which it does not close the first grating and a second position (Figure 3) in which it closes the first grating completely and in which the first grating closes the second grating fully, characterised in that: • the diffusion element is able to move from its first position to its second position by a rotation movement around the longitudinal axis (X-X') of the air duct in relation to the seat, • a rotation of the diffusion element in relation to the seat around the longitudinal axis (X-X') of the air duct involves a translation movement of the diffusion element in relation to the seat along the longitudinal axis (X-X') of the air duct, • the diffusion element comprises members fitted to each cooperate with an inclined ramp arranged on the seat. • the diffusion element is able to move from its first position to its second position by a rotation movement around the longitudinal axis (X-X') of the air duct in relation to the seat, • a rotation of the diffusion element in relation to the seat around the longitudinal axis (X-X') of the air duct involves a translation movement of the diffusion element in relation to the seat along the longitudinal axis (X-X') of the air duct, • the diffusion element comprises members fitted to each cooperate with an inclined ramp arranged on the seat.
A method of forming a header for an implantable medical device, the method comprising: positioning a pre-molding assembly within a first-shot mold, wherein the pre-molding assembly comprises an antenna, an electrode, and an attachment plate, and wherein the first-shot mold defines at least one divot; and creating a first-shot assembly by introducing a first shot molding material into the first-shot mold, wherein the first-shot assembly comprises the pre-molding assembly at least partially covered by the first-shot molding material, wherein the first-shot assembly comprises at least one protrusion of the first shot molding material extending from a surface of the first-shot assembly and formed by introduction of the first shot molding material into the at least one divot of the first-shot mold; said method further comprising placing the first-shot assembly into the second-shot mold, wherein placing the first-shot assembly into the second-shot mold comprises placing the at least one protrusion against a wall of the second-shot mold opposite the electrode; and wherein the at least one protrusion extends outward from a surface of the first-shot assembly at a first portion of the first-shot assembly, wherein the at least one protrusion is configured to guide flow of a second-shot molding material introduced proximate to the first portion toward a second, different portion of the first-shot assembly within a second-shot mold; the method further comprising injecting a second-shot molding material into the second-shot mold to substantially overmold the first-shot assembly. positioning a pre-molding assembly within a first-shot mold, wherein the pre-molding assembly comprises an antenna, an electrode, and an attachment plate, and wherein the first-shot mold defines at least one divot; and creating a first-shot assembly by introducing a first shot molding material into the first-shot mold, wherein the first-shot assembly comprises the pre-molding assembly at least partially covered by the first-shot molding material, wherein the first-shot assembly comprises at least one protrusion of the first shot molding material extending from a surface of the first-shot assembly and formed by introduction of the first shot molding material into the at least one divot of the first-shot mold; said method further comprising placing the first-shot assembly into the second-shot mold, wherein placing the first-shot assembly into the second-shot mold comprises placing the at least one protrusion against a wall of the second-shot mold opposite the electrode; and wherein the at least one protrusion extends outward from a surface of the first-shot assembly at a first portion of the first-shot assembly, wherein the at least one protrusion is configured to guide flow of a second-shot molding material introduced proximate to the first portion toward a second, different portion of the first-shot assembly within a second-shot mold; the method further comprising injecting a second-shot molding material into the second-shot mold to substantially overmold the first-shot assembly.
Secure start-up device of a computer installation comprising: - a first connection interface to the computer installation, - a second connection interface to an external data medium, this medium being separate from the computer installation and including data and executable codes, - means (32, 42, 44) for securing use of the data and executable codes, wherein these means include means for verifying and validating access rights, for executing a method of authentication of a user of the external data medium independently of any resource of the computer installation, characterized in that the data and executable codes are those of a start-up program of the computer installation and in that the device further comprises: - means for suspending the start-up of the computer installation by sending a hold instruction to the computer installation as long as the use of data and executable codes has not been secured, said securing being realized by an execution, by the means (32, 42, 44) for securing, of the authentication method, and - means (32, 40) for transmitting the data and executable codes of the start-up program, from the external data medium via the second connection interface to the computer installation via the first connection interface, after verification and validation of the access rights, to start up the computer installation using the transmitted data and executable codes. - a first connection interface to the computer installation, - a second connection interface to an external data medium, this medium being separate from the computer installation and including data and executable codes, - means (32, 42, 44) for securing use of the data and executable codes, wherein these means include means for verifying and validating access rights, for executing a method of authentication of a user of the external data medium independently of any resource of the computer installation, - means for suspending the start-up of the computer installation by sending a hold instruction to the computer installation as long as the use of data and executable codes has not been secured, said securing being realized by an execution, by the means (32, 42, 44) for securing, of the authentication method, and - means (32, 40) for transmitting the data and executable codes of the start-up program, from the external data medium via the second connection interface to the computer installation via the first connection interface, after verification and validation of the access rights, to start up the computer installation using the transmitted data and executable codes.
A phytase which has at least 90% identity with the amino acid sequence of SEQ ID 18 and an elevated thermal stability with respect to the two wild type phytases from Yersinia mollaretìì and Hafnia sp.
A method of wireless communication comprising: performing, by a first wireless device (115-h), a discovery operation on a first narrow frequency band; establishing a first communication link with a discovered second wireless device (120-d) on a second narrow frequency band; and transmitting data on the second narrow frequency band to the discovered second wireless device, the data to be relayed by the discovered second wireless device to a third device (105-c) on a second communication link on a broad frequency band. performing, by a first wireless device (115-h), a discovery operation on a first narrow frequency band; establishing a first communication link with a discovered second wireless device (120-d) on a second narrow frequency band; and transmitting data on the second narrow frequency band to the discovered second wireless device, the data to be relayed by the discovered second wireless device to a third device (105-c) on a second communication link on a broad frequency band.
A system for transferring energy to a vehicle, wherein - the system comprises an electric conductor arrangement adapted to produce an electromagnetic field which can be received by the vehicle thereby transferring the energy to the vehicle and which produces an electric voltage by induction, - the system comprises electric and/or electronic devices which are adapted to operate the electric conductor arrangement, wherein the devices produce heat while operating the conductor arrangement and therefore are to be cooled, - a cooling arrangement of the system comprises o a structure having a cavity in which at least one of the devices to be cooled is located, ∘ wherein the structure comprises a cover limiting the cavity at the top, wherein the device(s) to be cooled is/are located at a distance to the cover, ∘ wherein the structure is integrated in the ground at the path of travel of the vehicle in such a manner that the cover forms a part of the surface of the ground, characterized in that - the structure is embedded in an outer shell of a solid material having a higher heat capacity per surface area of the structure than the material of the structure. - the system comprises an electric conductor arrangement adapted to produce an electromagnetic field which can be received by the vehicle thereby transferring the energy to the vehicle and which produces an electric voltage by induction, - the system comprises electric and/or electronic devices which are adapted to operate the electric conductor arrangement, wherein the devices produce heat while operating the conductor arrangement and therefore are to be cooled, - a cooling arrangement of the system comprises o a structure having a cavity in which at least one of the devices to be cooled is located, ∘ wherein the structure comprises a cover limiting the cavity at the top, wherein the device(s) to be cooled is/are located at a distance to the cover, ∘ wherein the structure is integrated in the ground at the path of travel of the vehicle in such a manner that the cover forms a part of the surface of the ground, o a structure having a cavity in which at least one of the devices to be cooled is located, ∘ wherein the structure comprises a cover limiting the cavity at the top, wherein the device(s) to be cooled is/are located at a distance to the cover, ∘ wherein the structure is integrated in the ground at the path of travel of the vehicle in such a manner that the cover forms a part of the surface of the ground, - the structure is embedded in an outer shell of a solid material having a higher heat capacity per surface area of the structure than the material of the structure.
A method for controlling a system to perform a process, the method comprising: using first principles and engineering knowledge to define a continuous time nonlinear gray-box model of a system performing a process; defining a numerically tractable optimization problem for parameter estimation of the nonlinear gray-box model; tuning parameters of a static model of the nonlinear gray-box model; extending the parameters of the static model to a dynamic model by fitting measured transient data from the process; and controlling the system to perform the process using the dynamic model; wherein fitting measured transient data uses a local linear approximation of the non-linear gray-box model, and wherein the method further comprises providing analytical sensitivity to the parameters of the nonlinear gray-box model, wherein sensitivity is provided as a gradient of a cost function, wherein the gradient is computed using prediction errors and their sensitivities to the parameters. using first principles and engineering knowledge to define a continuous time nonlinear gray-box model of a system performing a process; defining a numerically tractable optimization problem for parameter estimation of the nonlinear gray-box model; tuning parameters of a static model of the nonlinear gray-box model; extending the parameters of the static model to a dynamic model by fitting measured transient data from the process; and controlling the system to perform the process using the dynamic model; wherein fitting measured transient data uses a local linear approximation of the non-linear gray-box model, and wherein the method further comprises providing analytical sensitivity to the parameters of the nonlinear gray-box model, wherein sensitivity is provided as a gradient of a cost function, wherein the gradient is computed using prediction errors and their sensitivities to the parameters.
Adipose tissue-derived stromal stem cells for use in a method of treating fistula or a wound in a subject, wherein said adipose tissue-derived stromal stem cells are allogenic with respect to the subject to be treated.
A camera module comprising: a front body comprising a lens barrel accommodating portion, a planar surface extending from the lens barrel accommodating portion in an outer circumferential direction, and a flange portion extending downward from the planar surface; a lens barrel disposed inner the front body; at least one lens disposed inner the lens barrel; a rear body coupled to the front body; and a substrate portion disposed inner the rear body, and disposed below the lens barrel; wherein the planar surface comprises a thermal bonding groove formed in a bottom surface of the planar surface, wherein the rear body comprises a thermal bonding portion protruding from an upper surface of the rear body, and disposed on the thermal bonding groove, wherein the camera module comprises a gasket disposed between the front body and the rear body, wherein the gasket is spaced apart from the thermal bonding portion, wherein the flange portion comprises a front end, and a rear end disposed on an inner side of the front end, and wherein the front body comprises a laser-transmissible plastic material or a plastic material mixed with laser-transmissible carbon or metal, wherein a laser irradiation unit is positioned on the thermal bonding portion of the rear body and wherein the planar surface is positioned at the rear portion of the lens barrel accommodating portion, such that a laser welder may irradiate laser light from the front direction towards the rear direction to transmit laser light through the planar surface and irradiate the laser light to the thermal bonding portion. a front body comprising a lens barrel accommodating portion, a planar surface extending from the lens barrel accommodating portion in an outer circumferential direction, and a flange portion extending downward from the planar surface; a lens barrel disposed inner the front body; at least one lens disposed inner the lens barrel; a rear body coupled to the front body; and a substrate portion disposed inner the rear body, and disposed below the lens barrel; wherein the planar surface comprises a thermal bonding groove formed in a bottom surface of the planar surface, wherein the rear body comprises a thermal bonding portion protruding from an upper surface of the rear body, and disposed on the thermal bonding groove, the camera module comprises a gasket disposed between the front body and the rear body, wherein the gasket is spaced apart from the thermal bonding portion, wherein the flange portion comprises a front end, and a rear end disposed on an inner side of the front end, and wherein the front body comprises a laser-transmissible plastic material or a plastic material mixed with laser-transmissible carbon or metal, wherein a laser irradiation unit is positioned on the thermal bonding portion of the rear body and wherein the planar surface is positioned at the rear portion of the lens barrel accommodating portion, such that a laser welder may irradiate laser light from the front direction towards the rear direction to transmit laser light through the planar surface and irradiate the laser light to the thermal bonding portion.
An olefin polymerization process, the process comprising: contacting a catalyst composition with an olefin monomer and optionally an olefin comonomer under polymerization conditions to produce an olefin polymer, wherein the catalysts composition comprises catalyst component I, catalyst component II, an activator-support, and an organoaluminum compound, wherein: catalyst component I comprises a metallocene compound; characterized in that catalyst component II comprises a hydrogen scavenging catalyst comprising: or and a molar ratio of catalyst component I to catalyst component II in the catalyst composition is in a range from 40:1 to 10,000:1. contacting a catalyst composition with an olefin monomer and optionally an olefin comonomer under polymerization conditions to produce an olefin polymer, wherein the catalysts composition comprises catalyst component I, catalyst component II, an activator-support, and an organoaluminum compound, wherein: catalyst component I comprises a metallocene compound; characterized in that catalyst component II comprises a hydrogen scavenging catalyst comprising: or and catalyst component I comprises a metallocene compound; characterized in that catalyst component II comprises a hydrogen scavenging catalyst comprising: or and a molar ratio of catalyst component I to catalyst component II in the catalyst composition is in a range from 40:1 to 10,000:1.