mhurhangee/ep-ind-claims huggingface dataset:
Luminaire to produce an indirect lighting, comprising - light source comprising at least one LED, for the production of a light which can be emitted from the luminaire in the direction of the luminaire provided for operation for the creation of indirect lighting, and - a heat sink for cooling the light source, characterised in that in the direction of the luminaire provided for operation the heat sink has a first with respect to the vertically inclined side wall region and a second with respect to the vertically inclined side wall region, wherein the second side wall region differs from the first side wall region in its inclination / or in its orientation; the luminaire is designed such that the light source for producing the indirect lighting can be arranged either on the first side wall region or on the second side wall region, and the heat sink has in the direction of the luminaire provided for operation an upwardly open groove and the first side wall region and the second side wall region form walls of the groove. - light source comprising at least one LED, for the production of a light which can be emitted from the luminaire in the direction of the luminaire provided for operation for the creation of indirect lighting, and - a heat sink for cooling the light source,
An antifouling paint comprising an ecologically compatible anti-microbial-adhesion agent which comprises a compound selected from the group consisting of vanillin, benzaldehyde substituted with one or two substituents selected from the groups -OH (hydroxy) and -OCH 3 (methoxy), and any combination thereof, in combination with at least a further component selected from the group consisting of conventional biocides, solvents, resins, pigments, charges, fillings, and any combination thereof.
A method of collimating an atomic beam, the method comprising: a first step of irradiating the atomic beam with a first laser beam, the first laser beam having a wavelength corresponding to a transition between a ground state and a first excited state of an atom in the atomic beam, thereby selectively changing, from the ground state to the first excited state, atoms in the atomic beam each having a velocity component in a direction orthogonal to a traveling direction of the atomic beam, the velocity component being smaller than a predetermined velocity; a second step of irradiating, after the first step, the atomic beam with a second laser beam, the second laser beam having a wavelength corresponding to a transition between the ground state and a second excited state of the atom in the atomic beam, thereby providing recoil momenta to atoms in the ground state in the atomic beam to change a traveling direction of the atoms in the ground state in the atomic beam; and a third step of irradiating, after the second step, the atomic beam with a third laser beam, the third laser beam having the wavelength corresponding to the transition between the ground state and the first excited state, thereby changing the atoms in the first excited state in the atomic beam from the first excited state to the ground state. a first step of irradiating the atomic beam with a first laser beam, the first laser beam having a wavelength corresponding to a transition between a ground state and a first excited state of an atom in the atomic beam, thereby selectively changing, from the ground state to the first excited state, atoms in the atomic beam each having a velocity component in a direction orthogonal to a traveling direction of the atomic beam, the velocity component being smaller than a predetermined velocity; a second step of irradiating, after the first step, the atomic beam with a second laser beam, the second laser beam having a wavelength corresponding to a transition between the ground state and a second excited state of the atom in the atomic beam, thereby providing recoil momenta to atoms in the ground state in the atomic beam to change a traveling direction of the atoms in the ground state in the atomic beam; and a third step of irradiating, after the second step, the atomic beam with a third laser beam, the third laser beam having the wavelength corresponding to the transition between the ground state and the first excited state, thereby changing the atoms in the first excited state in the atomic beam from the first excited state to the ground state.
A steering shaft for a motor vehicle, with a hollow outer shaft, in which an inner shaft is received in a torque-transmitting and axially displaceable manner, an elastic boot being connected to the inner shaft or the outer shaft, wherein the boot is arranged at least partially within the steering shaft, characterized in that the boot is arranged in the interior of the inner shaft, the boot having a coupling section which is fastened to an inner side of the inner shaft.
A tissue splayer (1, 20, 76) comprising: an index finger portion comprising a rigid annulus for receiving an index finger of a user; a middle finger portion comprising a rigid annulus for receiving a middle finger of a user; a first pivot joint coupling the index finger portion to the middle finger portion to permit the middle finger portion to rotate relative to the index finger portion about a first pivot axis, the first pivot joint configured to be located, in use, above a dorsal surface of a user's palm; a second pivot joint coupling the index finger portion to the middle finger portion to permit the middle finger portion to rotate relative to the index finger portion about the first pivot axis, the second pivot joint configured to be located, in use, below a palmar surface of a user's palm; and a first splay mechanism configured to permit rotation of the middle finger portion away from the index finger portion about the first pivot axis, and to resist rotation of the middle finger portion towards the index finger portion about the first pivot axis. an index finger portion comprising a rigid annulus for receiving an index finger of a user; a middle finger portion comprising a rigid annulus for receiving a middle finger of a user; a first pivot joint coupling the index finger portion to the middle finger portion to permit the middle finger portion to rotate relative to the index finger portion about a first pivot axis, the first pivot joint configured to be located, in use, above a dorsal surface of a user's palm; a second pivot joint coupling the index finger portion to the middle finger portion to permit the middle finger portion to rotate relative to the index finger portion about the first pivot axis, the second pivot joint configured to be located, in use, below a palmar surface of a user's palm; and a first splay mechanism configured to permit rotation of the middle finger portion away from the index finger portion about the first pivot axis, and to resist rotation of the middle finger portion towards the index finger portion about the first pivot axis.
A method of recovering viable phage from a crude phage preparation, wherein the method comprises the steps of: a) Adding the crude phage preparation to an active filtration system comprising a size exclusion filter, wherein said filter comprises a pore size smaller than a size of the phage contained within the crude phage preparation; b) Passing a series of buffers over the filter, wherein said series of buffers comprise: a) a buffer that disrupts ionic protein interactions and which comprises a high ionic strength buffer; b) a buffer that disrupts hydrophobic/hydrophilic interactions and which comprises a detergent and/or non-denaturing organic solvent; and c) a buffer that precipitates the phage which is an ammonium sulfate buffer, a sodium sulfate buffer, a magnesium sulfate buffer or a mixture thereof, and, optionally, comprises a chaotropic agent; and c) Recovering said phage from the filter, wherein said recovered phage are viable. a) Adding the crude phage preparation to an active filtration system comprising a size exclusion filter, wherein said filter comprises a pore size smaller than a size of the phage contained within the crude phage preparation; b) Passing a series of buffers over the filter, wherein said series of buffers comprise: a) a buffer that disrupts ionic protein interactions and which comprises a high ionic strength buffer; b) a buffer that disrupts hydrophobic/hydrophilic interactions and which comprises a detergent and/or non-denaturing organic solvent; and c) a buffer that precipitates the phage which is an ammonium sulfate buffer, a sodium sulfate buffer, a magnesium sulfate buffer or a mixture thereof, and, optionally, comprises a chaotropic agent; and a) a buffer that disrupts ionic protein interactions and which comprises a high ionic strength buffer; b) a buffer that disrupts hydrophobic/hydrophilic interactions and which comprises a detergent and/or non-denaturing organic solvent; and c) a buffer that precipitates the phage which is an ammonium sulfate buffer, a sodium sulfate buffer, a magnesium sulfate buffer or a mixture thereof, and, optionally, comprises a chaotropic agent; and c) Recovering said phage from the filter, wherein said recovered phage are viable.
A microcapsule color material containing at least a leuco dye, a developer and a discoloring temperature controller represented by the following Formula: wherein R1 and R2 represent an alkyl group having 7 to 21 carbon atoms, and R3 represents a hydrogen atom or an alkyl group having 1 to 7 carbon atoms.
A device for implanting a bone fixation element (8, 28, 38) in a bone, comprising: a hand piece extending from a proximal end to a distal end and including a first internal optical waveguide connected to a laser source and open to the distal end of the hand piece; and a light guiding tip (7, 27, 37) extending from a proximal end to a distal end and including a second optical wave guide, the distal end of the light guiding tip being configured to permit removable attachment of the bone fixation element (8, 28, 38) thereonto, wherein the light guiding tip (7, 27, 37) is configured to control a total radiant energy Q transmitted from the laser source to the bone fixation element, characterized in that the proximal end of the light guiding tip (7, 27, 37) is removably mechanically and optically connectable to the distal end of the hand piece. a hand piece extending from a proximal end to a distal end and including a first internal optical waveguide connected to a laser source and open to the distal end of the hand piece; and a light guiding tip (7, 27, 37) extending from a proximal end to a distal end and including a second optical wave guide, the distal end of the light guiding tip being configured to permit removable attachment of the bone fixation element (8, 28, 38) thereonto, wherein the light guiding tip (7, 27, 37) is configured to control a total radiant energy Q transmitted from the laser source to the bone fixation element, characterized in that the proximal end of the light guiding tip (7, 27, 37) is removably mechanically and optically connectable to the distal end of the hand piece.
A method for distinguishing between subjects in a high recurrence risk category of prostate cancer and subjects in a low recurrence risk category of prostate cancer, comprising: (i) measuring an expression level of at least two diagnostic markers selected from the set of markers, except for Histone 1 H3d, presented in TABLE 2, with each expression level measured relative to an average of expression levels of two or more control markers and (ii) combining the expression level of the at least two diagnostic markers with a predictive probability based on a Kattan nomogram, to assign to subjects one of the high recurrence risk category of prostate cancer and the low recurrence risk category of prostate cancer. (i) measuring an expression level of at least two diagnostic markers selected from the set of markers, except for Histone 1 H3d, presented in TABLE 2, with each expression level measured relative to an average of expression levels of two or more control markers and (ii) combining the expression level of the at least two diagnostic markers with
Connection assembly, comprising a bulkhead connector, the bulkhead connector being adapted for installation in a wall of a housing and comprising a partition wall, the connection assembly further comprising an adaptor comprising a standardized connector face, the adaptor extending through the partition wall and being fixed to the bulkhead connector by fixing means that are accessible from one side of the partition wall, characterized in that the adaptor has a twofold rotational symmetry around a longitudinal direction so that it can be installed in any of the two rotational positions.
An ultrasound system for insonifying a region of interest containing vascular acoustic resonators, VARs, with spatially interleaved patterns of ultrasound beams comprising: an ultrasound array (10a, 10b) arranged to transmit ultrasound therapy beams adapted to rupture or destroy VARs into the region of interest; and further comprising: a transmit controller coupled to the array and arranged to control steering of the therapy beams in a plurality of sequential patterns, wherein each subsequent in time pattern comprises beam areas which are spatially interleaved between beam areas of the previous pattern to thereby provide uniform and complete insonification of the region of interest, wherein the transmit controller is further arranged to cause the system to refrain from transmitting over a time interval between transmission of two subsequent patterns, wherein the time interval is at least 0.1 seconds, wherein the centers of the beam areas in any pattern of ultrasound therapy beams are separated from each other by a spacing at least equal to a half power beam width and not greater than the 18.75 % pressure beam width. a transmit controller coupled to the array and arranged to control steering of the therapy beams in a plurality of sequential patterns, wherein each subsequent in time pattern comprises beam areas which are spatially interleaved between beam areas of the previous pattern to thereby provide uniform and complete insonification of the region of interest, wherein the transmit controller is further arranged to cause the system to refrain from transmitting over a time interval between transmission of two subsequent patterns, wherein the time interval is at least 0.1 seconds, wherein the centers of the beam areas in any pattern of ultrasound therapy beams are separated from each other by a spacing at least equal to a half power beam width and not greater than the 18.75 % pressure beam width.
A stand for dispensing an expanded sheet material from a self-contained material supply cartridge having a roll of expandable sheet material that can be drawn from the roll in a downstream direction relative to the stand, the stand being characterized by comprising a base member having first and second upwardly-opening slots laterally-spaced apart along a first axis and adapted to receive lower edge portions of support panels (604 and 606) of a material supply cartridge, and third and fourth upwardly-opening slots laterally-spaced apart along a second axis spaced from and parallel to the first axis and adapted to receive an axle for a roll of separating sheet material, where the slots each have a transversely-extending surface on at least a downstream side of the slot to retain respective rolls (118,104) as expandable sheet material and separating sheet material are concurrently drawn from the rolls (118,104). a base member having first and second upwardly-opening slots laterally-spaced apart along a first axis and adapted to receive lower edge portions of support panels (604 and 606) of a material supply cartridge, and third and fourth upwardly-opening slots laterally-spaced apart along a second axis spaced from and parallel to the first axis and adapted to receive an axle for a roll of separating sheet material, where the slots each have a transversely-extending surface on at least a downstream side of the slot to retain respective rolls (118,104) as expandable sheet material and separating sheet material are concurrently drawn from the rolls (118,104).
A hydraulic system for circulating hydraulic fluid via a pump and a hydraulic motor, said hydraulic system being arranged for propelling a vehicle, wherein said hydraulic system comprises a main control valve located between said pump and said hydraulic motor as seen in a direction of flow from said pump to said hydraulic motor, and an anticavitation valve located between said main control valve and said hydraulic motor as seen in a direction of flow from said pump to said hydraulic motor, said anticavitation valve being arranged such that when said main control valve assumes a condition preventing fluid communication between said pump and said hydraulic motor, hydraulic fluid may flow from a first side to a second side of said hydraulic motor via said anticavitation valve, characterized in that said anticavitation valve comprises a variable valve assembly comprising an electronically controlled pressure relief valve for variably controlling the hydraulic fluid flow from said first side to said second side of said hydraulic motor.
A method for producing a 2-aminonicotinic acid benzyl ester derivative, comprising: reacting a 2-aminonicotinic acid derivative represented by the following formula: wherein R 1 represents a hydrogen atom or a C 1 to C 4 alkyl group and M represents a hydrogen atom or an alkali metal, and a benzyl derivative represented by the following formula: wherein R 2 represents a hydrogen atom, a halogen atom, a C 1 to C 4 alkyl group or a C 1 to C 4 alkoxy group, A represents a nitrogen atom or a methine group, X represents a hydroxyl group or a halogen atom, and Y represents an oxygen atom, a methylene group (CH 2) or a methyleneoxy group (OCH 2), a) by using a base when M is a hydrogen atom in the formula, and b) by using an halogenating agent when X is a hydroxyl group in the formula, and then reacting the 2-aminonicotinic acid derivative with the benzyl derivative in an aromatic hydrocarbon solvent in the presence of a phase transfer catalyst or a tertiary amine, to produce a 2-aminonicotinic acid benzyl ester derivative represented by the following formula: wherein R 1, R 2, A and Y are as defined in the formulae and. reacting a 2-aminonicotinic acid derivative represented by the following formula: wherein R 1 represents a hydrogen atom or a C 1 to C 4 alkyl group and M represents a hydrogen atom or an alkali metal, and a benzyl derivative represented by the following formula: wherein R 2 represents a hydrogen atom, a halogen atom, a C 1 to C 4 alkyl group or a C 1 to C 4 alkoxy group, A represents a nitrogen atom or a methine group, X represents a hydroxyl group or a halogen atom, and Y represents an oxygen atom, a methylene group (CH 2) or a methyleneoxy group (OCH 2), a) by using a base when M is a hydrogen atom in the formula, and b) by using an halogenating agent when X is a hydroxyl group in the formula, and a) by using a base when M is a hydrogen atom in the formula, and b) by using an halogenating agent when X is a hydroxyl group in the formula, and then reacting the 2-aminonicotinic acid derivative with the benzyl derivative in an aromatic hydrocarbon solvent in the presence of a phase transfer catalyst or a tertiary amine, to produce a 2-aminonicotinic acid benzyl ester derivative represented by the following formula: wherein R 1, R 2, A and Y are as defined in the formulae and.
An apparatus comprising: - means for storing information in the apparatus; - means for causing the information to be transmitted toward a user equipment in a downlink direction, partly via a cellular carrier and partly via a non-cellular carrier, the cellular and non-cellular carriers being together in a carrier aggregation; - means for determining a handover of the cellular carrier is likely, wherein the handover does not change an access point providing the non-cellular carrier, and - means for disabling, responsive to the determination, a ciphering of the part of the information conveyed toward the user equipment via the non-cellular carrier, wherein ciphering the part of the information transmitted via the cellular carrier is continued when ciphering the part of the information transmitted via the non-cellular carrier is disabled, wherein ciphering keys are associated with specific base stations, wherein the ciphering comprises ciphering applied to the part of the information conveyed via the non-cellular carrier before it is provided from the apparatus to the access point. - means for storing information in the apparatus; - means for causing the information to be transmitted toward a user equipment in a downlink direction, partly via a cellular carrier and partly via a non-cellular carrier, the cellular and non-cellular carriers being together in a carrier aggregation; - means for determining a handover of the cellular carrier is likely, wherein the handover does not change an access point providing the non-cellular carrier, and - means for disabling, responsive to the determination, a ciphering of the part of the information conveyed toward the user equipment via the non-cellular carrier, wherein ciphering the part of the information transmitted via the cellular carrier is continued when ciphering the part of the information transmitted via the non-cellular carrier is disabled, wherein ciphering keys are associated with specific base stations, wherein the ciphering comprises ciphering applied to the part of the information conveyed via the non-cellular carrier before it is provided from the apparatus to the access point.
A method of transmitting a sidelink signal by a User Equipment, UE, in a wireless communication system, the method comprising: receiving, from a first Base Station, BS, a resource pool configuration indicating a plurality of resource groups for signal transmission and reception of the UE; and transmitting, to another UE, a sidelink message using a specific resource unit in a specific resource group among the plurality of resource groups indicated by the resource pool configuration based on dynamic resource allocation information, wherein each of the plurality of resource groups is configured by continuously allocating M resource units, where M is a natural number and M>0, wherein each of the plurality of resource groups is configured to have at least N sidelink resource units, where N is a natural number and N>0, wherein each of the resource units is configured for one of uplink, downlink, and sidelink, and wherein the dynamic resource allocation information indicates that the sidelink message is to be transmitted using an K-th resource unit, where K is a natural number and M≥K>0, among resource units in the specific resource group, wherein the K-th resource unit corresponds to one of the at least N sidelink resource units. receiving, from a first Base Station, BS, a resource pool configuration indicating a plurality of resource groups for signal transmission and reception of the UE; and transmitting, to another UE, a sidelink message using a specific resource unit in a specific resource group among the plurality of resource groups indicated by the resource pool configuration based on dynamic resource allocation information, wherein each of the plurality of resource groups is configured by continuously allocating M resource units, where M is a natural number and M>0, wherein each of the plurality of resource groups is configured to have at least N sidelink resource units, where N is a natural number and N>0, wherein each of the resource units is configured for one of uplink, downlink, and sidelink, and wherein the dynamic resource allocation information indicates that the sidelink message is to be transmitted using an K-th resource unit, where K is a natural number and M≥K>0, among resource units in the specific resource group, wherein the K-th resource unit corresponds to one of the at least N sidelink resource units.