mhurhangee/ep-ind-claims huggingface dataset:
Radiation detector that detects radiation according to a predefined spectral sensitivity distribution that exhibits a maximum at a predefined wavelength λ 0, wherein the spectral sensitivity distribution is the spectral sensitivity distribution of the light adapting or dark adapting human eye, - comprising a semiconductor body with an active region serving to generate a detector signal and intended to receive radiation, wherein the semiconductor body corresponds to a PIN diode structure, - the active region comprises a plurality of functional layers (4a,4b,4c,4d), wherein the functional layers have different band gaps, - either the functional layers are formed such that these functional layers absorb radiation on a wavelength range that includes wavelength greater than the wavelength λ 0, or - the semiconductor body contains at least one III-V semiconductor material, - disposed after the active region is a filter layer structure, such that radiation to be received by the radiation detector partially passes the filter layer structure and after passing the filter layer structure hits the active region for generating the detector signal, wherein - the filter layer structure contains at least one a filter layer (7,7a,7b,7c), and - the filter layer structure determines a short-wave side of a detector sensitivity in accordance with the predefined spectral sensitivity distribution by absorbing radiation in a wavelength range that includes wavelengths smaller than λ 0, - the semiconductor body is monolithically integrated with the filter layer structure, and - electron-hole pairs generated by absorption in the filter layer (7,7a,7b,7c) do not substantially contribute to the photocurrent. - comprising a semiconductor body with an active region serving to generate a detector signal and intended to receive radiation, wherein the semiconductor body corresponds to a PIN diode structure, - the active region comprises a plurality of functional layers (4a,4b,4c,4d), wherein the functional layers have different band gaps, - either the functional layers are formed such that these functional layers absorb radiation on a wavelength range that includes wavelength greater than the wavelength λ 0, or - the semiconductor body contains at least one III-V semiconductor material, - disposed after the active region is a filter layer structure, such that radiation to be received by the radiation detector partially passes the filter layer structure and after passing the filter layer structure hits the active region for generating the detector signal, wherein - the filter layer structure contains at least one a filter layer (7,7a,7b,7c), and - the filter layer structure determines a short-wave side of a detector sensitivity in accordance with the predefined spectral sensitivity distribution by absorbing radiation in a wavelength range that includes wavelengths smaller than λ 0, - the semiconductor body is monolithically integrated with the filter layer structure, and - electron-hole pairs generated by absorption in the filter layer (7,7a,7b,7c) do not substantially contribute to the photocurrent.
A compound of the following formula: R 2 R 3 NOC-R 1a -CONR 4 R 5 (Ia) wherein R 2, R 3, R 4 and R 5, either identical or different, are linear C 1 -C 4 alkyl groups, characterized in that R 1a is a divalent group of formula (IIa): -CH 2 -CH 2 -(CHR 6) x - (IIa) wherein: - x is an integer greater than 0, and - R 6, either identical or different, is a C 1 -C 6 alkyl group. - x is an integer greater than 0, and - R 6, either identical or different, is a C 1 -C 6 alkyl group.
A non-naturally occurring or engineered inducible CRISPR protein, comprising: a first CRISPR protein fusion construct comprising a first fragment of a CRISPR protein attached to a first half of an inducible dimer and a second CRISPR protein fusion construct comprising a second fragment of the CRISPR protein attached to a second half of the inducible dimer, wherein the first CRISPR protein fusion construct is operably linked to one or more nuclear localization signals, wherein the second CRISPR protein fusion construct is operably linked to one or more nuclear export signals, wherein contact with an inducer energy source brings the first and second halves of the inducible dimer together, wherein bringing the first and second halves of the inducible dimer together allows the first and second CRISPR protein fusion constructs to constitute a functional CRISPR-Cas system, wherein the CRISPR-Cas system comprises a guide RNA comprising a guide sequence capable of hybridizing to a target sequence in a genomic locus of interest in a cell, and wherein the functional CRISPR-Cas system binds to the target sequence and, optionally, edits the genomic locus to alter gene expression. a first CRISPR protein fusion construct comprising a first fragment of a CRISPR protein attached to a first half of an inducible dimer and a second CRISPR protein fusion construct comprising a second fragment of the CRISPR protein attached to a second half of the inducible dimer, wherein the first CRISPR protein fusion construct is operably linked to one or more nuclear localization signals, wherein the second CRISPR protein fusion construct is operably linked to one or more nuclear export signals, wherein contact with an inducer energy source brings the first and second halves of the inducible dimer together, wherein bringing the first and second halves of the inducible dimer together allows the first and second CRISPR protein fusion constructs to constitute a functional CRISPR-Cas system, wherein the CRISPR-Cas system comprises a guide RNA comprising a guide sequence capable of hybridizing to a target sequence in a genomic locus of interest in a cell, and wherein the functional CRISPR-Cas system binds to the target sequence and, optionally, edits the genomic locus to alter gene expression.
A computer-implemented method for selecting a viewpoint of a set of objects in a main bounding box, the main bounding box comprising at least one bounding box wherein the set of objects is enclosed, comprising: - identifying faces of the at least one bounding box by: - determining an outline of the at least one bounding box; - identifying one or more visible faces inside the outline; and - identifying one or more non-visible faces associated with at least one portion of the outline; - associating with each identified face a viewpoint on the set of objects; - selecting one of the visible or non-visible faces associated with one viewpoint, where: - a visible face is selected upon user action; - a non-visible face is selected upon user action at a given distance of the portion of the outline associated with the non-visible face to be selected; - displaying a view of the set of objects according to the viewpoint associated with the selected face. - identifying faces of the at least one bounding box by: - determining an outline of the at least one bounding box; - identifying one or more visible faces inside the outline; and - identifying one or more non-visible faces associated with at least one portion of the outline; - determining an outline of the at least one bounding box; - identifying one or more visible faces inside the outline; and - identifying one or more non-visible faces associated with at least one portion of the outline; - associating with each identified face a viewpoint on the set of objects; - selecting one of the visible or non-visible faces associated with one viewpoint, where: - a visible face is selected upon user action; - a non-visible face is selected upon user action at a given distance of the portion of the outline associated with the non-visible face to be selected; - a visible face is selected upon user action; - a non-visible face is selected upon user action at a given distance of the portion of the outline associated with the non-visible face to be selected; - displaying a view of the set of objects according to the viewpoint associated with the selected face.
Transport carriage for transporting moulds in a, preferably spatially fixedly installed, transport system in a production line for confectionery, with a receptacle for or containing at least one mould, wherein the transport carriage (2; 102) is provided with a dedicated drive (8, 2b), in particular comprises at least one motor, characterized in that a holding arrangement for the fixing, the positioning control and/or centring of the mould, in particular a mould receptacle (12; 112), a spring arrangement and/or a damper arrangement, is contained between the frame of the transport carriage (2; 102) and a mould to be transported.
An aryl amine substituted quinoxaline which is represented by Formula I(b) wherein R 2 and R 3 are same or different substituted phenyl groups and the substituted phenyl group each is
A two part floor covering, comprising: (a) a base (5, 13, 18) having a planar tray (6, 12, 19), the tray (6, 12, 19) having an upper surface; (b) a mat (1, 11, 17) overlaying the tray (6, 12, 19), the mat (1, 11, 17) having (i) a sheet-like substrate with an upper face and a lower face; and (ii) a backing layer (4, 22) attached to the lower face of the substrate; and (c) a fastening system for detachably securing the mat (1, 11, 17) to the base tray (6, 12, 19), the fastening system having a mushroom-type hook fastener (14, 15)first component and a second component that is capable of engaging the first component to create a fastener (14, 15), wherein the second component is selected from the group consisting of mushroom-type hook fasteners (14, 15), loop strips and a fabric capable of being penetrated by the hooks of the first component, provided that first component is attached to either the backing layer (4, 22) of the mat (1, 11, 17) or the tray (6, 12, 19) and the second component is attached opposite the first component, to either the backing layer (4, 22) of the mat (1, 11, 17) or the tray (6, 12, 19), wherein the floor covering includes at least one alignment and deployment mechanism selected from textile component configurations that reduce surface area, a film material, a sheeting material, and combinations thereof. (a) a base (5, 13, 18) having a planar tray (6, 12, 19), the tray (6, 12, 19) having an upper surface; (b) a mat (1, 11, 17) overlaying the tray (6, 12, 19), the mat (1, 11, 17) having (i) a sheet-like substrate with an upper face and a lower face; and (ii) a backing layer (4, 22) attached to the lower face of the substrate; and (c) a fastening system for detachably securing the mat (1, 11, 17) to the base tray (6, 12, 19), the fastening system having a mushroom-type hook fastener (14, 15)first component and a second component that is capable of engaging the first component to create a fastener (14, 15), wherein the second component is selected from the group consisting of mushroom-type hook fasteners (14, 15), loop strips and a fabric capable of being penetrated by the hooks of the first component, provided that first component is attached to either the backing layer (4, 22) of the mat (1, 11, 17) or the tray (6, 12, 19) and the second component is attached opposite the first component, to either the backing layer (4, 22) of the mat (1, 11, 17) or the tray (6, 12, 19),
Storage system having a number of M storage media, having a number of N data producers each providing a data stream (rij + rji) and each having one or more data members, having a storage management device for distributing the data streams (rij + rji) from the N data producers to the M storage media, wherein a group of (A+1) of the M storage media is statically assigned during a running time of the storage system to each of the N data producers, where 1<=A<M, characterized in that the M storage media have a similar storage capacity, with the result that the deviation from an averaged storage capacity over all M storage media is less than 20%, in that each storage medium has a counter which is designed to change the counter reading on the basis of the quotient between the allocated memory and available memory, and in that the storage management device is designed to distribute the data stream from a data producer to the assigned storage medium with the lowest counter reading, wherein the storage media operate according to a FIFO principle, wherein - as soon as the storage medium is full - the memory with the oldest entries is overwritten, and in that the counter readings of a group of (A+1) storage media assigned to a single data producer are set to 0, to a uniform value or to an averaged value in the event of a manual correction or in the event of inclusion of a new storage medium.
A method comprising: taking a nuclear power plant from a power-generating mode to a non-power-generating mode; after taking the plant to the non-power-generating mode, and while the nuclear plant is in the non-power-generating mode: providing a treatment solution comprising zinc within a portion of a first coolant loop of the nuclear plant, allowing the treatment solution to remain in the portion of the first coolant loop for a first treatment period, and removing the treatment solution from the portion of the first coolant loop; and after said providing, allowing, and removing, returning the plant to the power-generating mode, wherein the method is characterized by: said removing comprising transferring the solution from the portion of the first coolant loop to a portion of a second coolant loop of the nuclear plant, and the method further comprising, before returning the plant to the power-generating mode: allowing the solution to remain in the portion of the second coolant loop for a second treatment period, and removing the solution from the portion of the second coolant loop. taking a nuclear power plant from a power-generating mode to a non-power-generating mode; after taking the plant to the non-power-generating mode, and while the nuclear plant is in the non-power-generating mode: providing a treatment solution comprising zinc within a portion of a first coolant loop of the nuclear plant, allowing the treatment solution to remain in the portion of the first coolant loop for a first treatment period, and removing the treatment solution from the portion of the first coolant loop; and providing a treatment solution comprising zinc within a portion of a first coolant loop of the nuclear plant, allowing the treatment solution to remain in the portion of the first coolant loop for a first treatment period, and removing the treatment solution from the portion of the first coolant loop; and after said providing, allowing, and removing, returning the plant to the power-generating mode, wherein the method is characterized by: said removing comprising transferring the solution from the portion of the first coolant loop to a portion of a second coolant loop of the nuclear plant, and the method further comprising, before returning the plant to the power-generating mode: allowing the solution to remain in the portion of the second coolant loop for a second treatment period, and removing the solution from the portion of the second coolant loop. said removing comprising transferring the solution from the portion of the first coolant loop to a portion of a second coolant loop of the nuclear plant, and the method further comprising, before returning the plant to the power-generating mode: allowing the solution to remain in the portion of the second coolant loop for a second treatment period, and removing the solution from the portion of the second coolant loop. allowing the solution to remain in the portion of the second coolant loop for a second treatment period, and removing the solution from the portion of the second coolant loop.
A fan system, comprising a rotatable axial flow fan unit, and a fan shroud unit adjacent to the fan unit and capable of surrounding at least a portion of an outer periphery of the fan unit, characterized in that an actuator is coupled to the shroud unit and is operable to move the shroud unit with respect to the fan unit, thereby varying immersion of the fan unit within the shroud unit.
A method of controlling an optical state of an optically switchable device, the method comprising: (a) receiving a voice command or a gesture command from a user, the voice command or gesture command conveying information for changing the optical state of the optically switchable device to a desired optical state; (b) using voice recognition or gesture recognition to convert the voice command or gesture command, respectively, into a text command, wherein (b) comprises using two or more dictionaries to convert the voice command or gesture command into the text command, wherein a first dictionary is used when converting a first portion of the voice command or gesture command, and a second dictionary is used when converting a second portion of the voice command or gesture command; (c) analyzing the text command from (b) to interpret the voice command or gesture command from the user in (a); and (d) executing the text command to cause the optically switchable device to transition to the desired optical state. (a) receiving a voice command or a gesture command from a user, the voice command or gesture command conveying information for changing the optical state of the optically switchable device to a desired optical state; (b) using voice recognition or gesture recognition to convert the voice command or gesture command, respectively, into a text command, wherein (b) comprises using two or more dictionaries to convert the voice command or gesture command into the text command, wherein a first dictionary is used when converting a first portion of the voice command or gesture command, and a second dictionary is used when converting a second portion of the voice command or gesture command; (c) analyzing the text command from (b) to interpret the voice command or gesture command from the user in (a); and (d) executing the text command to cause the optically switchable device to transition to the desired optical state.
An excitation fuse with a conductor and a fusant being sequentially broken, the excitation fuse comprising a housing and a cavity in the housing, wherein at least one conductor is provided to be inserted in the housing and the cavity and configured to have two ends connected with an external circuit; at least one fusant is provided in parallel on each conductor; an excitation device and a breaking device are mounted in the cavity at one side of the conductor; the excitation device is configured to receive an external excitation signal to act to drive the breaking device to sequentially form at least one fracture on the conductor and the fusant respectively; and portions of the conductor located at two sides of the at least one fracture on the conductor are connected in parallel with the fusant, wherein at least one set of force applying assemblies is provided on the fusant located in the housing, and the force applying assembly is configured to break, driven by the breaking device, the fusant to form a fracture, characterised in that the housing is provided with a closed arc extinguishing chamber filled with an arc extinguishing medium; and a part or all of the fusant is located in the arc extinguishing medium, wherein the force applying assembly comprises at least one push rod and at least one guide rod, the arc extinguishing medium is filled around the push rod and the guide rod, and the fusant is located between the push rod and the guide rod; one end of the push rod penetrates through and extends out of the arc extinguishing chamber; one end of the guide rod can displace into a reserved displacement space in the arc extinguishing chamber or extend out of the arc extinguishing chamber; a blocking structure configured to prevent leakage of the arc extinguishing medium is provided between the push rod and the guide rod and the wall of the arc extinguishing chamber; after the breaking device breaks the conductor, the breaking device drives the push rod and the guide rod to displace in a linear manner to break the fusant, where two segments of the broken fusant are a cathode and an anode respectively, with an arc path between the cathode and the anode; and the cathode and/or the anode is still in the arc extinguishing medium, and a part or all of the arc path is in the arc extinguishing medium.
An abutment for use in a dental implant system, wherein the abutment is provided with a guiding and lock means for associating the abutment to a dental implant, the guiding and lock means including: a first conically tapered section; a second non-tapered section arranged apically adjacent to the first section, the second section being provided with an anti-rotational means; and a third circular cylindrical section arranged apically adjacent to the second section, such that to provide axial guiding to the abutment upon the insertion thereof into a dental implant, characterised in that the second section has a substantially octagonal cross-section with four straight sides connected by four interposed protruding sides, each of said protruding sides having a curved shape. a first conically tapered section; a second non-tapered section arranged apically adjacent to the first section, the second section being provided with an anti-rotational means; and a third circular cylindrical section arranged apically adjacent to the second section, such that to provide axial guiding to the abutment upon the insertion thereof into a dental implant, characterised in that the second section has a substantially octagonal cross-section with four straight sides connected by four interposed protruding sides, each of said protruding sides having a curved shape.
A cable breakaway system for use with a power cable connector provided on a power cable (1, 700), the power cable connector having an outer insulating sheath (2a, 2b) provided around the outer circumference of at least a part of the connector into which the cable (1, 700) is received, and a bearing surface within the outer insulating sheath, the cable breakaway system including at least one cable breakaway device comprising: a main body having a channel passing therethrough for receiving at least a part of a power cable (1, 700); and characterised by at least one cutting protrusion (5a, 5a') extending away from the main body on an outer surface of the main body, wherein movement of the power cable in a first direction through the channel causes the power cable connector to move towards the cable breakaway device such that the outer insulating sheath (2a, 2b) of the connector engages the at least one cutting protrusion (5a, 5a') of the breakaway device, cutting the outer insulating sheath (2a,2b) and the sheath is displaced to pass around the cable breakaway device, allowing the bearing surface to move toward and subsequently make contact with a portion of the main body. a main body having a channel passing therethrough for receiving at least a part of a power cable (1, 700); and characterised by at least one cutting protrusion (5a, 5a') extending away from the main body on an outer surface of the main body, wherein movement of the power cable in a first direction through the channel causes the power cable connector to move towards the cable breakaway device such that the outer insulating sheath (2a, 2b) of the connector engages the at least one cutting protrusion (5a, 5a') of the breakaway device, cutting the outer insulating sheath (2a,2b) and the sheath is displaced to pass around the cable breakaway device, allowing the bearing surface to move toward and subsequently make contact with a portion of the main body.