mhurhangee/ep-ind-claims huggingface dataset:
A combination of a drain channel (103, 203) and one or more strainers (101, 201), which strainer or strainers (101, 201) is adapted for disposition in the drain channel (103, 203), and where the drain channel (103, 203) is covered by one or more grating covers, and where the drain channel (103, 203) in its longitudinal direction is adapted to conduct drain water towards a drain as the bottom (107, 207) of the drain channel (103, 203) has a downward slope towards the drain, where the strainer or strainers (101, 201) is designed as an oblong unit with perforations, the unit extending in longitudinal direction of the drain channel (103, 203), wherein the strainer has an edge extending in longitudinal direction of the strainer, wherein the edge is designed such that the strainer can rest on the upper edge of the drain channel (103, 203), whereby drain water passes through the strainer or strainers (101, 201) on its way towards the bottom (107, 207) of the drain channel (103, 203), and whereby the strainer or strainers (101, 201) sifts the drain water, thereby collecting objects larger than the perforations of the strainer (101, 201), characterised in that handles are provided on the strainer, that the strainer or strainers (101, 201) is made up of a bent stainless steel plate with perforations in the form of round holes and that the handles are bent flaps.
A bi-targeted mutein MuR6S4TR of TRAIL, wherein the amino acid sequence of the mutein is shown as SEQ ID NO: 2, wherein the mutein enables the site 2 to site 11 at N-terminal of mutein to become bi-targeted muteins containing cell-penetrating peptide sequence RRRRRR and binding sequence AVPI of apoptosis inhibitor XIAP by selectively mutating glutamine at site 8 into alanine in the amino acid sequence at site 8 to site 11 of TRAIL-MuR6, mutating arginine at site 9 into valine, mutating valine at site 10 into proline and mutating alanine at site 11 into isoleucine, i.e., mutating QRVA at site 8 to site 11 into AVPI sequence.
A method for fabricating a thin film III-V compound solar cell (100, 101, 102, 103), the method comprising: providing a substrate; forming a sacrificial layer on the substrate; forming a thin film III-V compound solar cell (100, 101, 102, 103) with at least one active layer including a first active layer (110A, 110B, 110C, 110D, 110E) on the sacrificial layer; forming a metal backing layer on a surface of the at least one active layer (110A, 110B, 110C, 110D, 110E) of the thin film III-V compound solar cell having the lowest bandgap energy level (100, 101, 102, 103); and removing the sacrificial layer from between the at least one active layer (110A, 110B, 110C, 110D, 110E) and the substrate to separate the thin film III-V compound solar cell (100, 101, 102, 103) from the substrate by performing epitaxial lift off of the thin film III-V compound solar cell from the substrate, wherein the metal backing layer provides structural support for the at least one active layer (110A, 110B, 110C, 110D, 110E) during and after separation of the thin film III-V compound solar cell (100, 101, 102, 103) from the substrate, and wherein the metal backing layer is the outermost layer during separation of the thin film III-V compound solar cell (100, 101, 102, 103) from the substrate. providing a substrate; forming a sacrificial layer on the substrate; forming a thin film III-V compound solar cell (100, 101, 102, 103) with at least one active layer including a first active layer (110A, 110B, 110C, 110D, 110E) on the sacrificial layer; forming a metal backing layer on a surface of the at least one active layer (110A, 110B, 110C, 110D, 110E) of the thin film III-V compound solar cell having the lowest bandgap energy level (100, 101, 102, 103); and removing the sacrificial layer from between the at least one active layer (110A, 110B, 110C, 110D, 110E) and the substrate to separate the thin film III-V compound solar cell (100, 101, 102, 103) from the substrate by performing epitaxial lift off of the thin film III-V compound solar cell from the substrate, wherein the metal backing layer provides structural support for the at least one active layer (110A, 110B, 110C, 110D, 110E) during and after separation of the thin film III-V compound solar cell (100, 101, 102, 103) from the substrate, and wherein the metal backing layer is the outermost layer during separation of the thin film III-V compound solar cell (100, 101, 102, 103) from the substrate.
Method for producing an electrically conductive contact on a rear face and/or front face (14, 16) of a solar cell (10, 100, 140), wherein the contact to a connector (18, 20) interconnecting solar cells is connected by means of an adhesive (30, 26), characterized in, that the surface of the rear face and/or front face (14, 16) of the solar cell (10, 100, 140) is treated in the region of the contact to be formed by means of ultrasonic is carried out with at least one action from the following group: partial consolidation, application of soldering.
A mixture comprising a) at least one compound of the general formula I wherein R1 is OH; R2 is H, OH, C 1 -C 6 alkoxy, -SO 2 X, -SO 3 X, -OSO 3 X, -PO 3 X 2, -COOX, -OPO 3 X 2, -Z-COOX or -CH -SO 3 X; R3 is H, C 1 C 6 alkyl which may be substituted by 1 or 2 OH or C 1 C 6 alkoxy; m is 0 or 1; or R1 and R2 taken together with the carbon atom to which they are attached form a carbonyl group provided m is 0; R4 is COOY or SO 3 X; X is selected from H or a cation equivalent K a wherein K is selected from an alkali metal, alkaline earth metal, zinc, iron, ammonium or phosphonium cation and a is 1/n wherein n is the valency of the cation; Y = is selected from X, C 1 C 6 alkyl or phenyl; and Z is CH 2 or CH, and b) at least one water-soluble organic carbonate. a) at least one compound of the general formula I wherein R1 is OH; R2 is H, OH, C 1 -C 6 alkoxy, -SO 2 X, -SO 3 X, -OSO 3 X, -PO 3 X 2, -COOX, -OPO 3 X 2, -Z-COOX or -CH -SO 3 X; R3 is H, C 1 C 6 alkyl which may be substituted by 1 or 2 OH or C 1 C 6 alkoxy; m is 0 or 1; or R1 and R2 taken together with the carbon atom to which they are attached form a carbonyl group provided m is 0; R4 is COOY or SO 3 X; X is selected from H or a cation equivalent K a wherein K is selected from an alkali metal, alkaline earth metal, zinc, iron, ammonium or phosphonium cation and a is 1/n wherein n is the valency of the cation; Y = is selected from X, C 1 C 6 alkyl or phenyl; and Z is CH 2 or CH, and R1 is OH; R2 is H, OH, C 1 -C 6 alkoxy, -SO 2 X, -SO 3 X, -OSO 3 X, -PO 3 X 2, -COOX, -OPO 3 X 2, -Z-COOX or -CH -SO 3 X; R3 is H, C 1 C 6 alkyl which may be substituted by 1 or 2 OH or C 1 C 6 alkoxy; m is 0 or 1; or R1 and R2 taken together with the carbon atom to which they are attached form a carbonyl group provided m is 0; R4 is COOY or SO 3 X; X is selected from H or a cation equivalent K a wherein K is selected from an alkali metal, alkaline earth metal, zinc, iron, ammonium or phosphonium cation and a is 1/n wherein n is the valency of the cation; Y = is selected from X, C 1 C 6 alkyl or phenyl; and Z is CH 2 or CH, and b) at least one water-soluble organic carbonate.
A display comprising: a touch screen panel (303; 403; 503; 603; 703); a display panel (304; 504; 604; 704) disposed under the touch screen panel, and including a first flexible substrate (348; 548; 648; 748); a driving circuit configured to drive the touch screen panel or the display panel; and a second flexible substrate (303B; 403B; 503B; 603B; 703B) extending from a partial portion (303T; 403A; 503T; 603T; 703T) of the touch screen panel to the outside of the touch screen panel, wherein the second flexible substrate comprises: a driving circuit area in which the driving circuit is disposed; at least one first wire (432, 433; 532a; 632b; 732b; 933, 934; 1033B; 1132; 1232; 1332; 1432; 1532; 1632) connected to the driving circuit and the touch screen panel; a bending area bent with respect to the touch screen panel, and the display further comprising: a window (301; 501; 601; 701) disposed on the touch screen panel, and including a transparent area and a bezel area surrounding at least a part of the transparent area, wherein the bending area is disposed under the bezel area, and wherein the driving circuit area is disposed under the display panel within the transparent area. a touch screen panel (303; 403; 503; 603; 703); a display panel (304; 504; 604; 704) disposed under the touch screen panel, and including a first flexible substrate (348; 548; 648; 748); a driving circuit configured to drive the touch screen panel or the display panel; and a second flexible substrate (303B; 403B; 503B; 603B; 703B) extending from a partial portion (303T; 403A; 503T; 603T; 703T) of the touch screen panel to the outside of the touch screen panel, wherein the second flexible substrate comprises: a driving circuit area in which the driving circuit is disposed; at least one first wire (432, 433; 532a; 632b; 732b; 933, 934; 1033B; 1132; 1232; 1332; 1432; 1532; 1632) connected to the driving circuit and the touch screen panel; a bending area bent with respect to the touch screen panel, and a driving circuit area in which the driving circuit is disposed; at least one first wire (432, 433; 532a; 632b; 732b; 933, 934; 1033B; 1132; 1232; 1332; 1432; 1532; 1632) connected to the driving circuit and the touch screen panel; a bending area bent with respect to the touch screen panel, and the display further comprising: a window (301; 501; 601; 701) disposed on the touch screen panel, and including a transparent area and a bezel area surrounding at least a part of the transparent area, wherein the bending area is disposed under the bezel area, and wherein the driving circuit area is disposed under the display panel within the transparent area. a window (301; 501; 601; 701) disposed on the touch screen panel, and including a transparent area and a bezel area surrounding at least a part of the transparent area, wherein the bending area is disposed under the bezel area, and wherein the driving circuit area is disposed under the display panel within the transparent area.
A method implemented in a decoder, the method comprising: receiving, by a receiver of the decoder, a bitstream comprising sub-pictures partitioned from a picture, and a sequence parameter set comprising parameters, wherein the parameters comprise a sub-picture size for each of the sub-pictures and a sub-picture location for each of the sub-pictures, wherein the SPS further comprises a sub-picture identifier for each of the sub-pictures; parsing, by the processor, the SPS to obtain the sub-picture ID, the sub-picture size and the sub-picture location for each of the sub-pictures; generating, by the processor, the sub-pictures based on the sub-picture ID, the sub-picture size and the sub-picture location for each of the sub-pictures to create a video sequence receiving, by a receiver of the decoder, a bitstream comprising sub-pictures partitioned from a picture, and a sequence parameter set comprising parameters, wherein the parameters comprise a sub-picture size for each of the sub-pictures and a sub-picture location for each of the sub-pictures, wherein the SPS further comprises a sub-picture identifier for each of the sub-pictures; parsing, by the processor, the SPS to obtain the sub-picture ID, the sub-picture size and the sub-picture location for each of the sub-pictures; generating, by the processor, the sub-pictures based on the sub-picture ID, the sub-picture size and the sub-picture location for each of the sub-pictures to create a video sequence
A method of wireless communication performed by a user equipment, the method comprising: transmitting a sounding reference signal, SRS, that indicates that the UE is configured with a quantity of receive elements that is greater relative to a quantity of transmit elements with which the UE is configured; receiving, based at least in part on transmitting the SRS, a first channel state information, CSI, reference signal, CSI-RS, set and a second CSI-RS set, wherein transmissions of the first CSI-RS set are precoded based at least in part on the SRS, and wherein transmissions of the second CSI-RS set are non-precoded or are precoded using a precoder that is orthogonal to a precoder that is used to precode the transmissions of the first CSI-RS set; and transmitting a CSI report that is based at least in part on the first CSI-RS set and the second CSI-RS set. transmitting a sounding reference signal, SRS, that indicates that the UE is configured with a quantity of receive elements that is greater relative to a quantity of transmit elements with which the UE is configured; receiving, based at least in part on transmitting the SRS, a first channel state information, CSI, reference signal, CSI-RS, set and a second CSI-RS set, wherein transmissions of the first CSI-RS set are precoded based at least in part on the SRS, and wherein transmissions of the second CSI-RS set are non-precoded or are precoded using a precoder that is orthogonal to a precoder that is used to precode the transmissions of the first CSI-RS set; and transmitting a CSI report that is based at least in part on the first CSI-RS set and the second CSI-RS set.
A laminated substrate obtained by laminating a carbon fiber reinforced resin substrate (a) containing a carbon fiber and a thermoplastic resin fiber and a glass fiber reinforced resin substrate containing a glass fiber and a thermoplastic resin, wherein a content of the carbon fiber in the carbon fiber reinforced resin substrate (a) is 20% by mass or more and less than 100% by mass with respect to a total mass of the carbon fiber reinforced resin substrate (a), and the carbon fiber reinforced resin substrate (a) has an elongation percentage of from 20% to 150% at a maximum load point in a MD direction at a temperature of a melting point of a resin constituting the thermoplastic resin fiber + 20°C, an elongation percentage of from 20% to 150% at a maximum load point in a TD direction, and a tensile stress of 1.0 × 10 -3 to 1.0 × 10 -1 MPa.
Cooktop plate having a base plate, on the lower side of which a coating is configured with at least two metal layers (12, 14) and at least two dielectric layers (11, 13, 15), characterised in that the coating is configured in such a manner that a first colour parameter a* or a second colour parameter b* of the cooktop plate has a value greater than +10 or smaller than -10, and a third colour parameter L* has a value greater than 40, in particular between 40 and 70.
A device for selective connection of at least one first piece of computer equipment to a plurality of second pieces of computer equipment, the device comprising a first Ethernet port for connection to the first equipment, second Ethernet ports for connection to each of the second pieces of equipment, a selector arranged to connect the first Ethernet port physically and in selective manner to the second Ethernet ports, and a selector control unit, the second Ethernet ports being isolated from one another.
A mat material comprising; a mat-shaped main body comprising inorganic fibers and having a first surface and a second surface; and an inorganic adhesive sheet that can be handled independently from the mat-shaped main body and is disposed on at least one surface of the first and second surfaces of the mat-shaped main body, and contains an inorganic adhesive that exhibits adhesiveness by heating. a mat-shaped main body comprising inorganic fibers and having a first surface and a second surface; and an inorganic adhesive sheet that can be handled independently from the mat-shaped main body and is disposed on at least one surface of the first and second surfaces of the mat-shaped main body, and contains an inorganic adhesive that exhibits adhesiveness by heating.
A method in a communications system, comprising a step of sending a radio resource control message from a mobile terminal to a radio access network on a common transport channel, wherein the message comprises information about radio signal transmission measurements associated with one or more access entities of the radio access network, characterised in that said information is sent to the radio access network based on a default reporting configuration stored in the mobile terminal, without waiting for system information from the radio access network about a reporting configuration for said information.
An electrochemical cell comprising: a cylindrical housing having a height larger than a diameter; an aqueous alkaline electrolyte; a positive electrode having a nominal voltage of 1.5 volts and an active material including manganese dioxide; a negative electrode comprising particulate zinc and a gelling agent mixture, said gelling agent mixture comprising at least two components having a predetermined difference in resistivity, wherein the resistivity of the first component is greater than the resistivity of the second component, said resistivity being measured for each component prior to being mixed or provided to the cell; and wherein the first component and the second component are blended in a ratio of the first component relative to the second component of between 10:90 and 50:50 by volume. a cylindrical housing having a height larger than a diameter; an aqueous alkaline electrolyte; a positive electrode having a nominal voltage of 1.5 volts and an active material including manganese dioxide; a negative electrode comprising particulate zinc and a gelling agent mixture, said gelling agent mixture comprising at least two components having a predetermined difference in resistivity, wherein the resistivity of the first component is greater than the resistivity of the second component, said resistivity being measured for each component prior to being mixed or provided to the cell; and wherein the first component and the second component are blended in a ratio of the first component relative to the second component of between 10:90 and 50:50 by volume.
A structural reinforcement comprising: i) a base reinforcing structure including a plurality of ribs and having a first portion of a first surface and a second portion of a second surface, wherein the first portion is arranged such that it is in a plane that lies substantially perpendicular to the plane of the second portion; ii) an expandable adhesive material located onto the first portion of the first surface; iii) a sealant material located around an edge of the second surface, the second surface being substantially free of any of the plurality of ribs. i) a base reinforcing structure including a plurality of ribs and having a first portion of a first surface and a second portion of a second surface, wherein the first portion is arranged such that it is in a plane that lies substantially perpendicular to the plane of the second portion; ii) an expandable adhesive material located onto the first portion of the first surface; iii) a sealant material located around an edge of the second surface, the second surface being substantially free of any of the plurality of ribs.
A multiway switch, comprising: four T ports and 2 n P ports, the four T ports comprising two first T ports, and each of the two first T ports being coupled with all of the 2 n P ports; n being an integer and n ≥2; and the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency dual-transmit mode, to implement a preset function of the wireless communication device, the antenna system comprising 2 n antennas corresponding to the 2 n P ports, and the preset function being a function of transmitting a sounding reference signal, SRS, through the 2 n antennas in turn; characterized in that the four T ports further comprise two second T ports; each of the two second T ports is coupled with only one of the 2 n P ports and the two second T ports at the same frequency band are coupled with different P ports; each of the 2 n P ports is configured to be coupled with a corresponding antenna of the 2 n antennas; the two first T ports at least support a transmission function; and the two second T ports support only a reception function. four T ports and 2 n P ports, the four T ports comprising two first T ports, and each of the two first T ports being coupled with all of the 2 n P ports; n being an integer and n ≥2; and the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency dual-transmit mode, to implement a preset function of the wireless communication device, the antenna system comprising 2 n antennas corresponding to the 2 n P ports, and the preset function being a function of transmitting a sounding reference signal, SRS, through the 2 n antennas in turn; characterized in that the four T ports further comprise two second T ports; each of the two second T ports is coupled with only one of the 2 n P ports and the two second T ports at the same frequency band are coupled with different P ports; each of the 2 n P ports is configured to be coupled with a corresponding antenna of the 2 n antennas; the two first T ports at least support a transmission function; and the two second T ports support only a reception function.
A process for producing an acoustic device having a phononic crystal structure comprising a first series of inclusions produced in a first medium that are distributed in a matrix comprising a second medium, making it possible to block propagation of acoustic waves within a frequency band called the bandgap, characterised in that it includes the following steps: - a step of defining the geometric parameters of said inclusions, said inclusions having walls in contact with said matrix, making at least one first angle (θ), called wall angle, non-zero to the normal of the plane of said structure, said geometiic parameters including said first wall angle, said step including: • determining a function relating to the variation in frequency position of said bandgap with said wall angle and/or determining a function relating to the variation in width of said bandgap with said wall angle; • determining said at least first angle (θ) for a selected frequency position and/or a selected width of the bandgap from the function or functions determined beforehand; - a step of producing said first series of inclusions having at least said first wall angle in said matrix formed by said second medium. - a step of defining the geometric parameters of said inclusions, said inclusions having walls in contact with said matrix, making at least one first angle (θ), called wall angle, non-zero to the normal of the plane of said structure, said geometiic parameters including said first wall angle, said step including: • determining a function relating to the variation in frequency position of said bandgap with said wall angle and/or determining a function relating to the variation in width of said bandgap with said wall angle; • determining said at least first angle (θ) for a selected frequency position and/or a selected width of the bandgap from the function or functions determined beforehand; • determining a function relating to the variation in frequency position of said bandgap with said wall angle and/or determining a function relating to the variation in width of said bandgap with said wall angle; • determining said at least first angle (θ) for a selected frequency position and/or a selected width of the bandgap from the function or functions determined beforehand; - a step of producing said first series of inclusions having at least said first wall angle in said matrix formed by said second medium.