mhurhangee/ep-ind-claims huggingface dataset:
A method for coating packaging containers made of plastic, each packaging container comprising at least one cavity for receiving a packaged good and at least one seal surface for subsequently closing the cavity by means of a film by sealing the film to the seal surface of the packaging container with a barrier layer in vacuum for increasing the passage barrier effect against at least one chemical compound and/or at least one chemical element, several packaging containers being placed on a carrier and the packaging containers located on the carrier being jointly coated with the barrier layer in a vacuum coating chamber, the packaging containers being placed on the carrier in such a manner that, during the coating, the seal surface of the packaging containers faces the carrier so as to be masked from being coated with the barrier layer, characterized in that during the coating, the packaging containers rest on the carrier solely as a result of their own weight and each stand on the carrier in a centering recess, the cross-sectional area of the centering recess being slightly larger than the axial projection area of the packaging container, said packaging container thus being placeable upside down on the carrier and being held laterally by a circumferential recess wall during the handling of the carrier.
A method of producing 1-aminocyclopropanecarboxylic acid non-hydrate, which comprises treating 1-aminocyclopropanecarboxylic acid hydrochloride with a tertiary amine in the presence of a C 3 -C 4 alcohol and water, keeping the reaction mixture at 50°C or below, collecting the precipitated crystal of 1-aminocyclopropanecarboxylic acid 0.5 hydrate by filtration, and contacting the obtained crystal with a C 1 -C 2 alcohol. treating 1-aminocyclopropanecarboxylic acid hydrochloride with a tertiary amine in the presence of a C 3 -C 4 alcohol and water, keeping the reaction mixture at 50°C or below, collecting the precipitated crystal of 1-aminocyclopropanecarboxylic acid 0.5 hydrate by filtration, and contacting the obtained crystal with a C 1 -C 2 alcohol.
Steam turbine having at least one high-pressure section and at least one low-pressure section, at least one control valve being arranged between the high-pressure section and the low-pressure section for the purpose of limiting the wet content at the inlet to the low-pressure turbine to a permissible level, wherein the control valve can be moved between two end positions, and wherein - in the first end position of the control valve the steam volume flow can be fed in its entirety via the at least one control valve to the low-pressure section, - in the second end position all of the steam volume flow can first be fed to a reheater, and - in at least one other switching position, which is between the first and the second end positions, a first part volume flow can be fed to the reheater and a second part volume flow can be fed to the low-pressure section without reheating. - in the first end position of the control valve the steam volume flow can be fed in its entirety via the at least one control valve to the low-pressure section, - in the second end position all of the steam volume flow can first be fed to a reheater, and - in at least one other switching position, which is between the first and the second end positions, a first part volume flow can be fed to the reheater and a second part volume flow can be fed to the low-pressure section without reheating.
A processor for executing instructions using a plurality of register file segments, comprising: a global front end scheduler for receiving an incoming instruction sequence (20, 21, 22, 23), wherein the global front end scheduler allocates incoming the instruction sequence into a plurality of code segments of instructions, and generates a plurality of inheritance vectors describing interdependencies between instructions of the code segments; a plurality of execution units coupled to the global front scheduler for executing the code segments in accordance with respective inheritance vectors; and a plurality of register file segments coupled to the execution units for providing data storage, wherein a subset of the plurality of execution units and a subset of the plurality of register file segments form a virtual core, characterized in that the plurality of register file segments implement an execution mode, wherein physical resources of each register file segment are dynamically allocated in accordance with an adjustable threshold to support execution of a single logical thread of a logical core. a global front end scheduler for receiving an incoming instruction sequence (20, 21, 22, 23), wherein the global front end scheduler allocates incoming the instruction sequence into a plurality of code segments of instructions, and generates a plurality of inheritance vectors describing interdependencies between instructions of the code segments; a plurality of execution units coupled to the global front scheduler for executing the code segments in accordance with respective inheritance vectors; and a plurality of register file segments coupled to the execution units for providing data storage, wherein a subset of the plurality of execution units and a subset of the plurality of register file segments form a virtual core, characterized in that the plurality of register file segments implement an execution mode, wherein physical resources of each register file segment are dynamically allocated in accordance with an adjustable threshold to support execution of a single logical thread of a logical core.
A heat control system for use in an optical or optoelectronic device or subassembly, the heat control system comprising: a housing for containing the optical or optoelectronic device or subassembly; one or more heat generating components; an active cooling component for removing heat from at least one of the one or more heat generating components, wherein the active cooling component is in a first direct thermal connection and a direct mechanical connection with the at least one of the one or more heat generating components; and a heat transfer assembly comprising a substantially planar two dimensional vessel which combines both thermal conductivity and phase transition, wherein the heat transfer assembly is thermally connected to the active cooling component through a conductive platform which is disposed in between the heat transfer assembly and the active cooling component, wherein the heat transfer assembly provides a mechanical supporting structure for one or more of the heat generating components, wherein the optical or optoelectronic device or subassembly comprises at least two heat generating components, each heat generating component comprising an active cooling component, and wherein the heat transfer assembly is in thermal connection with both active cooling components. a housing for containing the optical or optoelectronic device or subassembly; one or more heat generating components; an active cooling component for removing heat from at least one of the one or more heat generating components, wherein the active cooling component is in a first direct thermal connection and a direct mechanical connection with the at least one of the one or more heat generating components; and a heat transfer assembly comprising a substantially planar two dimensional vessel which combines both thermal conductivity and phase transition, wherein the heat transfer assembly is thermally connected to the active cooling component through a conductive platform which is disposed in between the heat transfer assembly and the active cooling component, wherein the heat transfer assembly provides a mechanical supporting structure for one or more of the heat generating components, wherein the optical or optoelectronic device or subassembly comprises at least two heat generating components, each heat generating component comprising an active cooling component, and wherein the heat transfer assembly is in thermal connection with both active cooling components.
A printing control device comprising: a determination section configured to determine whether an elapsed time, which constitutes a time which elapses with no subsequent board being conveyed in since a point in time when a mask and a board, on which a printer, configured to execute a printing process of printing a solder on a board through an opening portion in the mask by a squeegee sliding on the mask, executes the printing process, are separated to convey out the board, exceeds a predetermined allowable time; a first printing control section configured to cause the printer to execute the printing process for a first time on at least a first board which is conveyed in since the determination is made when the determination section determines that the elapsed time exceeds the allowable time; a movement controller configured to separate the mask and the board from each other after the first printing control section executes the printing process for the first time and bring the mask and the board into abutment with each other again after the separation; and a second printing control section configured to cause the printer to execute the printing process for a second time on the board after the movement controller brings the mask and the board into abutment with each other again. a determination section configured to determine whether an elapsed time, which constitutes a time which elapses with no subsequent board being conveyed in since a point in time when a mask and a board, on which a printer, configured to execute a printing process of printing a solder on a board through an opening portion in the mask by a squeegee sliding on the mask, executes the printing process, are separated to convey out the board, exceeds a predetermined allowable time; a first printing control section configured to cause the printer to execute the printing process for a first time on at least a first board which is conveyed in since the determination is made when the determination section determines that the elapsed time exceeds the allowable time; a movement controller configured to separate the mask and the board from each other after the first printing control section executes the printing process for the first time and bring the mask and the board into abutment with each other again after the separation; and a second printing control section configured to cause the printer to execute the printing process for a second time on the board after the movement controller brings the mask and the board into abutment with each other again.
A polypeptide comprising at least one Alphabody, having the general formula HRS1-L1-HRS2-L2-HRS3, wherein - each of HRS1, HRS2 and HRS3 is independently a heptad repeat sequence consisting of 2 to 7 consecutive heptad repeat units, at least 50% of all heptad a- and d-positions are occupied by isoleucine residues, each HRS starts and ends with an aliphatic or aromatic amino acid residue located at either a heptad a- or d-position, and HRS1, HRS2 and HRS3 together form a triple-stranded, alpha-helical, coiled coil structure; and - each of L1 and L2 is independently a linker fragment, which covalently connects HRS1 to HRS2 and HRS2 to HRS3, respectively, wherein said polypeptide is capable of being internalized into a cell and wherein said Alphabody specifically binds to a member of the BCL-2 family of proteins in said cell and is characterized in that said at least one Alphabody comprises one or more internalization regions comprising a sequence of 16 amino acids comprising at least six positively charged amino acid residues within said at least one Alphabody. - each of HRS1, HRS2 and HRS3 is independently a heptad repeat sequence consisting of 2 to 7 consecutive heptad repeat units, at least 50% of all heptad a- and d-positions are occupied by isoleucine residues, each HRS starts and ends with an aliphatic or aromatic amino acid residue located at either a heptad a- or d-position, and HRS1, HRS2 and HRS3 together form a triple-stranded, alpha-helical, coiled coil structure; and - each of L1 and L2 is independently a linker fragment, which covalently connects HRS1 to HRS2 and HRS2 to HRS3, respectively,
A wireline tractor comprising at least one driving wheel (4, 8, 12) positioned on a displacement mechanism (6, 10, 14) connected to the wireline tractor, in which the displacement mechanism (6, 10, 14) is arranged so as to hold the driving wheel (4, 8, 12) in a biasing manner against a well wall, characterized in that the displacement mechanism (6, 10, 14) at least is rotatable or movable between a first position at which the driving wheel (4, 8, 12) bears against the well wall on one side of the wireline tractor, and a second position at which the driving wheel (4, 8, 12) bears against the well wall on the opposite side of the wireline tractor.
A method to identify placement on a subject's body of a transducer array (1302, 1303) to generate tumor treating fields in the subject's body, the method comprising: receiving image data of the subject's body and the transducer array (1302, 1303) to generate tumor treating fields in the subject's body; displaying an image having a representation of the subject, a representation of the transducer array (1302, 1303), and a representation of a desired position of the transducer array (1302, 1303), the displayed image being based on the received image data; and providing a visual notification in the displayed image when the transducer array (1302, 1303) is determined to be located at the desired position. receiving image data of the subject's body and the transducer array (1302, 1303) to generate tumor treating fields in the subject's body; displaying an image having a representation of the subject, a representation of the transducer array (1302, 1303), and a representation of a desired position of the transducer array (1302, 1303), the displayed image being based on the received image data; and providing a visual notification in the displayed image when the transducer array (1302, 1303) is determined to be located at the desired position.
An encoder for slip ring, comprising: an encoding belt that is fixed to a slip ring and has a plurality of holes regularly arranged on the encoding belt; at least one pair of first sensors (52-1,52-2,54-1,54-2) provided on one side of the encoding belt, wherein the first sensors (52-1,52-2,54-1,54-2) of each pair generate a first sense signal (A1,B1) and a first redundant sense signal (A2,B2) respectively based on light emitted from the other side of the encoding belt and passing through the plurality of holes, when the encoding belt rotates with the slip ring; and at least one signal combiner (56, 58) connected to the at least one pair of the first sensors (52-1,52-2,54-1,54-2), and configured to combine the first sense signal (A1,B1) and the first redundant sense signal (A2,B2) to obtain a combined sense signal (A',B') as a first encoded signal;wherein the two first sensors of each pair (52-1,52-2,54-1,54-2) are provided along the encoding belt and spaced from each other by a preset distance, so as to generate the first sense signal (A1,B1) and the first redundant sense signal (A2,B2) having the same phase, and the signal combiner (56, 58) includes a logical OR gate that performs an OR operation of the first sense signal (A1,B1) and the first redundant sense signal (A2,B2). an encoding belt that is fixed to a slip ring and has a plurality of holes regularly arranged on the encoding belt; at least one pair of first sensors (52-1,52-2,54-1,54-2) provided on one side of the encoding belt, wherein the first sensors (52-1,52-2,54-1,54-2) of each pair generate a first sense signal (A1,B1) and a first redundant sense signal (A2,B2) respectively based on light emitted from the other side of the encoding belt and passing through the plurality of holes, when the encoding belt rotates with the slip ring; and at least one signal combiner (56, 58) connected to the at least one pair of the first sensors (52-1,52-2,54-1,54-2), and configured to combine the first sense signal (A1,B1) and the first redundant sense signal (A2,B2) to obtain a combined sense signal (A',B') as a first encoded signal;wherein the two first sensors of each pair (52-1,52-2,54-1,54-2) are provided along the encoding belt and spaced from each other by a preset distance, so as to generate the first sense signal (A1,B1) and the first redundant sense signal (A2,B2) having the same phase, and the signal combiner (56, 58) includes a logical OR gate that performs an OR operation of the first sense signal (A1,B1) and the first redundant sense signal (A2,B2).
Method for preparing a pharmaceutical hemostatic liquid foam, wherein a pharmaceutical hemostatic liquid foam base preparation comprising albumin as foaming agent and a fibrinogen precipitating substance and optionally a coagulation inducing agent, is contacted with a foaming gas so as to obtain a pharmaceutical hemostatic liquid foam, wherein albumin is present in native and non-crosslinked form and wherein albumin is present in the preparation as foaming agent from 5 to 40 % w/v.
Transport system for wave winding mats having a transport support, on which a wave winding mat can be placed and transported in a transport direction, as well as having lateral wave winding mat guides (10, 11) which extend along the transport direction, adjoin the transport support on both sides and prevent the wave winding mat from breaking out sideways during transport along the transport direction, characterised in that at least a first of the wave winding mat guides has a through opening (16, 13a') which extends in the transport direction along the wave winding mat guide and is permanently open or is to open at least in some sections, for passing through the wire end sections (21, 22) which are present on the wave winding mat.
A compound of general formula, or a pharmaceutically acceptable salt, enantiomer, diastereomer, racemate or solvate thereof: wherein m is selected from 0,1, 2, 3 and 4; n is selected from 0, 1, 2, 3 and 4; ----- represents a single or double bond; R 1 represents one or more optional and independent substitutions in the benzene moiety selected from the group consisting of alkyl and halogen; R 2 and R 3 are independently selected from the group consisting of hydrogen and alkyl; R 4 and R 5 together with the bridging nitrogen atom form a substituted or unsubstituted 5- or 7-membered heterocyclyl or a substituted or unsubstituted piperazinyl; R 6 is selected from the group consisting of hydrogen and alkyl; wherein substitution in any of the defined substituted groups is substitution at one or more available positions by one or more suitable groups such as OR', =O, SR', SOR', SO 2 R', OSO 2 R', OSO 3 R', NO 2, NHR', N(R') 2, =N-R', N(R')COR', N(COR') 2, N(R')SO 2 R', N(R')C(=NR')N(R')R', N 3, CN, halogen, COR', COOR', OCOR', OCOOR', OCONHR', OCON(R') 2, CONHR', CON(R') 2, CON(R')OR', CON(R')SO 2 R', PO(OR') 2, PO(OR')R', PO(OR')(N(R')R'), C 1 -C 12 alkyl, C 1 -C 12 alkyl substituted by aryl, C 3 -C 10 cycloalkyl, C 2 -C 12 alkenyl, C 2 -C 12 alkynyl, aryl, and heterocyclic group, wherein each of the R' groups is independently selected from the group consisting of hydrogen, OH, NO 2, NH 2, SH, CN, halogen, COH, COalkyl, COOH, C 1 -C 12 alkyl, C 3 -C 10 cycloalkyl, C 2 -C 12 alkenyl, C 2 -C 12 alkynyl, aryl and heterocyclic group; wherein when R 4 and R 5 together with the bridging nitrogen atom form a substituted non aromatic heterocyclyl, then said substitution is not =O. m is selected from 0,1, 2, 3 and 4; n is selected from 0, 1, 2, 3 and 4; ----- represents a single or double bond; R 1 represents one or more optional and independent substitutions in the benzene moiety selected from the group consisting of alkyl and halogen; R 2 and R 3 are independently selected from the group consisting of hydrogen and alkyl; R 4 and R 5 together with the bridging nitrogen atom form a substituted or unsubstituted 5- or 7-membered heterocyclyl or a substituted or unsubstituted piperazinyl; R 6 is selected from the group consisting of hydrogen and alkyl;
One or more purified polypeptides for use in a method of generating an immune response that ameliorates or prevents the effect of Ehrlichia canis infection in a human or canine, wherein the one or more purified polypeptides consist of SEQ ID NO: 33.
A polyether rubber comprising units expressed by the following general formula in 0.1 mol% or more but less than 30 mol%. wherein in the above general formula, A + is a group which contains a cationic imidazole ring, said group which contains a cationic imidazole ring is bonded with the carbon atom at the "2" position which is shown in the above general formula through a nitrogen atom which forms said cationic imidazole ring, X - is arbitrary counter anion.
An uplink reference signal receiving method, performed by a network device, the method comprising: configuring L time division duplexing, TDD component carriers for a terminal device, wherein the L component carriers comprise M first component carriers and N second component carriers, wherein the first component carriers are carriers on which scheduling of uplink data transmission is allowed, the second component carriers are carriers on which scheduling of uplink data transmission is prohibited, L, M, and N are positive integers, and L≥2; and receiving an uplink reference signal from the terminal device on N1 second component carriers within an uplink reference signal sending time, wherein N1 is a positive integer and N1≤N; and determining that there is no uplink signal of the terminal device on M1 first component carriers within the sending time, wherein M1 is a positive integer and N1≤M1≤M, the uplink reference signal receiving method further comprising: sending indication information to the terminal device, wherein the indication information is used to indicate the N1 second component carriers, wherein the N second component carriers are classified into a plurality of second component carrier groups, at least one of the second component carrier groups comprises the N1 second component carriers, and the indication information comprises at least one bit to indicate one of the plurality of second component carrier groups. configuring L time division duplexing, TDD component carriers for a terminal device, wherein the L component carriers comprise M first component carriers and N second component carriers, wherein the first component carriers are carriers on which scheduling of uplink data transmission is allowed, the second component carriers are carriers on which scheduling of uplink data transmission is prohibited, L, M, and N are positive integers, and L≥2; and receiving an uplink reference signal from the terminal device on N1 second component carriers within an uplink reference signal sending time, wherein N1 is a positive integer and N1≤N; and determining that there is no uplink signal of the terminal device on M1 first component carriers within the sending time, wherein M1 is a positive integer and N1≤M1≤M, the uplink reference signal receiving method further comprising: sending indication information to the terminal device, wherein the indication information is used to indicate the N1 second component carriers, wherein the N second component carriers are classified into a plurality of second component carrier groups, at least one of the second component carrier groups comprises the N1 second component carriers, and the indication information comprises at least one bit to indicate one of the plurality of second component carrier groups.