mhurhangee/ep-ind-claims huggingface dataset:
A device for adjusting ventilation on board of vehicles, the device comprising at least one control unit connectable to at least one command element of a ventilation system on a vehicle and to at least one ventilation device of said system, said control unit having generation means for generating an output current (I out) for supplying said ventilation device according to at least one input signal (S in) coming from said command element, the device characterized by that the device comprises at least one adjustment unit connected to said control unit and configured for adjusting said output current (I out) according to the minimum current required to supply said ventilation device and to the maximum current absorbable by said ventilation device, wherein said adjustment unit comprises: - a generation power circuit for generating a reference current (I ref); - a correction power circuit connected to said generation power circuit and comprising at least two branches (B1, B2, B3, B4) normally open and arranged in parallel to each other, wherein each of said branches (B1, B2, B3, B4) has an electric resistor (R1, R2, R3, R4) of different values the one from the other and closing means (P1, P2, P3, P4) of the branch (B1, B2, B3, B4), wherein at least one of said branches (B1, B2, B3, B4) is configured to be closed through said closing means (P1, P2, P3, P4) for varying said reference current (I ref) according to the minimum current required to supply said ventilation device and to the maximum current absorbable by said ventilation device; - a comparison power circuit for comparing said output current (I out) and said reference current (I ref), connected to said generation power circuit of the reference current (I ref) and to said control unit, wherein said comparison power circuit comprises means for varying said output current (I out) according to said difference found between said output current (I out) and said reference current (I ref). - a generation power circuit for generating a reference current (I ref); - a correction power circuit connected to said generation power circuit and comprising at least two branches (B1, B2, B3, B4) normally open and arranged in parallel to each other, wherein each of said branches (B1, B2, B3, B4) has an electric resistor (R1, R2, R3, R4) of different values the one from the other and closing means (P1, P2, P3, P4) of the branch (B1, B2, B3, B4), wherein at least one of said branches (B1, B2, B3, B4) is configured to be closed through said closing means (P1, P2, P3, P4) for varying said reference current (I ref) according to the minimum current required to supply said ventilation device and to the maximum current absorbable by said ventilation device; - a comparison power circuit for comparing said output current (I out) and said reference current (I ref), connected to said generation power circuit of the reference current (I ref) and to said control unit, wherein said comparison power circuit comprises means for varying said output current (I out) according to said difference found between said output current (I out) and said reference current (I ref).
A method for hydroxylation in position 2 or 3 of either end of a substituted or unsubstituted, linear or branched, aliphatic hydrocarbon having at least 3 carbons and having a hydrogen attached to the carbon in position 2 or 3, comprising contacting the aliphatic hydrocarbon with hydrogen peroxide and a polypeptide having peroxygenase activity; wherein the polypeptide comprises: a) an amino acid sequence which has at least 50% identity to SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, or SEQ ID NO:8; and b) an amino acid sequence represented by one or more of the following motifs: Motif I: XX S X G GX N (SEQ ID NO:9); Motif II: G GX NXX AX R (SEQ ID NO:10); Motif III: RXXRI S ATN (SEQ ID NO:11); Motif IV: S ATN (SEQ ID NO:12); Motif V: P F R (SEQ ID NO:13); Motif VI: XXXLYPNP (SEQ ID NO:14). a) an amino acid sequence which has at least 50% identity to SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, or SEQ ID NO:8; and b) an amino acid sequence represented by one or more of the following motifs: Motif I: XX S X G GX N (SEQ ID NO:9); Motif II: G GX NXX AX R (SEQ ID NO:10); Motif III: RXXRI S ATN (SEQ ID NO:11); Motif IV: S ATN (SEQ ID NO:12); Motif V: P F R (SEQ ID NO:13); Motif VI: XXXLYPNP (SEQ ID NO:14).
A camera (100, 126, 200), comprising: a processor; two imaging systems sharing a common objective lens each comprising a different path corresponding to a different viewing angle of an object, one back lens and one sensor; and one or more illumination sources; a mask comprising multiple pairs of apertures (114, 116, 118), wherein each aperture of each aperture pair corresponds to a different one of the imaging systems, wherein the sensors are configured to acquire multiple image pairs of the object from the two imaging systems via the multiple pairs of apertures; and wherein the processor configured to produce, from the multiple acquired image pairs, a multi-layer three dimensional reconstruction of the object. a processor; two imaging systems sharing a common objective lens each comprising a different path corresponding to a different viewing angle of an object, one back lens and one sensor; and one or more illumination sources; a mask comprising multiple pairs of apertures (114, 116, 118), wherein each aperture of each aperture pair corresponds to a different one of the imaging systems, wherein the sensors are configured to acquire multiple image pairs of the object from the two imaging systems via the multiple pairs of apertures; and wherein the processor configured to produce, from the multiple acquired image pairs, a multi-layer three dimensional reconstruction of the object.
A method of controlling a plurality of vehicles, performing the same mission cycle, performed by a control unit, or a group of control units, the method being characterized by - mapping a first set of planned degrees of progress to the cycle, - controlling the plurality of vehicles to start the cycle at respective different points in time, - determining deviations of the plurality of vehicles from a respective planned degree of progress (CCP1i) of the first set of planned degrees of progress, - mapping, based on the determined deviations of the plurality of vehicles, a second set of planned degrees of progress to the cycle, and - controlling the plurality of vehicles so as to minimize deviations of the vehicles from a respective planned degree of progress (CCP2i) of the second set of planned degrees of progress. - mapping a first set of planned degrees of progress to the cycle, - controlling the plurality of vehicles to start the cycle at respective different points in time, - determining deviations of the plurality of vehicles from a respective planned degree of progress (CCP1i) of the first set of planned degrees of progress, - mapping, based on the determined deviations of the plurality of vehicles, a second set of planned degrees of progress to the cycle, and - controlling the plurality of vehicles so as to minimize deviations of the vehicles from a respective planned degree of progress (CCP2i) of the second set of planned degrees of progress.
A method of operating a sectorized base station including a first sector and a second sector in a frequency division multiplexing, FDM, communication system using a set of available tones, the method comprising: determining a first set of tones in a first set of FDM symbols; transmitting to the first sector a set of known symbols in the first set of tones in a first FDM symbol in the first set of FDM symbols at a predetermined power; determining a second set of tones in a second set of FDM symbols, wherein the second set of FDM symbols are a subset of the first set of FDM symbols; restraining from-transmitting any power to the first sector in the second set of tones in a second FDM symbol in the second set of FDM symbols; determining a third set of tones in the first set of FDM symbols; transmitting to the second sector the set of known symbols in the third set of tones in a third FDM symbol in the first set of FDM symbols at a predetermined power; determining a fourth set of tones in a third set of FDM symbols; and restraining from transmitting any power to the second sector in the fourth set of tones in a fourth FDM symbol in the third set of FDM symbols, wherein a plurality of modular tone spacings between adjacent pairs of modular adjacent tones are equal to one of a set (a), a set (b) and a set (c), wherein the first plurality of modular tone spacings is calculated with a modular constant equal to 113, wherein: the set (a) = {26, 27, 26, 5, 29}; the set (b) = {26, 1, 26, 31, 29}; and the set (c) = {2, 27, 26, 27, 31}. determining a first set of tones in a first set of FDM symbols; transmitting to the first sector a set of known symbols in the first set of tones in a first FDM symbol in the first set of FDM symbols at a predetermined power; determining a second set of tones in a second set of FDM symbols, wherein the second set of FDM symbols are a subset of the first set of FDM symbols; restraining from-transmitting any power to the first sector in the second set of tones in a second FDM symbol in the second set of FDM symbols; determining a third set of tones in the first set of FDM symbols; transmitting to the second sector the set of known symbols in the third set of tones in a third FDM symbol in the first set of FDM symbols at a predetermined power; determining a fourth set of tones in a third set of FDM symbols; and restraining from transmitting any power to the second sector in the fourth set of tones in a fourth FDM symbol in the third set of FDM symbols, wherein a plurality of modular tone spacings between adjacent pairs of modular adjacent tones are equal to one of a set (a), a set (b) and a set (c), wherein the first plurality of modular tone spacings is calculated with a modular constant equal to 113, wherein: the set (a) = {26, 27, 26, 5, 29}; the set (b) = {26, 1, 26, 31, 29}; and the set (c) = {2, 27, 26, 27, 31}. the set (a) = {26, 27, 26, 5, 29}; the set (b) = {26, 1, 26, 31, 29}; and the set (c) = {2, 27, 26, 27, 31}.
A composition suitable for human consumption comprising decanoic acid and octanoic acid in a ratio of at least 2:1 wt/wt, in which the decanoic acid is greater than 50% of the total weight of fatty acid content, and optionally is substantially free from any other saturated fatty acid, for use in the treatment of a disease associated with mitochondria dysfunction, wherein the disease is epilepsy, diabetes, Parkinson's disease, or dementias including Alzheimer's disease.
Bearing with a first ring (2, 3), a second ring, and rolling bodies which are arranged between the rings (2, 3, 4), the first ring (2, 3) being a split ring with a first ring part and a second ring part, an annular seal being arranged in an abutment region between the first ring part and the second ring part, characterized in that the first ring part and the second ring part have an axially extending cut-out in the abutment region, the cut-out being configured by way of an axially extending cut-out part in the first ring part and an axially extending cut-out part in the second ring part, and in that the annular seal is of cylinder shell-shaped configuration and is arranged so as to extend axially into the cut-out part of the first ring part and into the cut-out part of the second ring part, the cut-out being configured as a pocket in the first and second ring part (2, 3), in which pocket the cylinder shell-shaped seal is received.
An analytical tool cartridge comprising: a case including a storage space and a retrieval port that communicates the storage space with an external space; and a plurality of analytical tools stored in the storage space in a stacked state; the analytical tool cartridge further comprising a retrieval mechanism for retrieving the analytical tools one at a time from the case via the retrieval port, andan opening/closing mechanism (52, 53) for opening and closing the retrieval port; wherein the retrieval mechanism and the opening/closing mechanism (52, 53) are constituted from a single operating body, wherein the operating body comprises an engaging projection for integrally moving each of the analytical tools upon the operating body being moved in a specific direction from a standby state, an operating portion for applying a load to and thus moving the operating body, a closing portion for closing the retrieval port in the standby state, and an opening portion for opening the retrieval port upon the operating body being moved in the specific direction from the standby state; wherein the operating body is an operating belt on which the engaging projection, the closing portion andthe openingportion are all formed, the closing portion being arranged to move away from the retrieval port with the opening portion being positioned at the retrieval port in response to the movement of the operating belt in said specific direction from the standby state; characterized in that the case includes an annular wall portion that defines the storage space and has the retrieval port provided therein, the operating belt is disposed along an outer surface of the annular wall portion and movable relative to the annular wall portion, and the opening portion penetrates through the operating belt.
Method of manufacturing a semiconductor on insulator type structure, notably for a front side type imager, successively comprising from its rear side to its front side a semiconductor support substrate, an electrically insulating layer and a monocrystalline semiconductor layer called active layer, the method comprising the following steps: - supplying a donor substrate (30, 40) comprising a semiconductor material suitable for the epitaxial growth of the material of the active layer; - supplying the support substrate; wherein the electrically insulating layer is formed on the donor substrate (30, 40) or on the support substrate, - bonding the donor substrate (30, 40) on the support substrate, the electrically insulating layer being at the bonding interface; - after said bonding, thinning the donor substrate (30, 40) so as to transfer a layer (34, 42) of the semiconductor material onto the front side of the support substrate; - after said thinning, depositing a silicon oxide layer on the rear side of the support substrate, - after said deposition of the silicon oxide layer, epitaxially growing the active layer on the transferred layer (34, 42) of semiconductor material, at a temperature greater than the deposition temperature of the oxide layer, wherein the silicon oxide layer has a thickness chosen to compensate the bow induced by the mechanical stress between the active layer and the support substrate during cooling of the structure after the epitaxial growth of the active layer on the support substrate. - supplying a donor substrate (30, 40) comprising a semiconductor material suitable for the epitaxial growth of the material of the active layer; - supplying the support substrate; wherein the electrically insulating layer is formed on the donor substrate (30, 40) or on the support substrate, - bonding the donor substrate (30, 40) on the support substrate, the electrically insulating layer being at the bonding interface; - after said bonding, thinning the donor substrate (30, 40) so as to transfer a layer (34, 42) of the semiconductor material onto the front side of the support substrate; - after said thinning, depositing a silicon oxide layer on the rear side of the support substrate, - after said deposition of the silicon oxide layer, epitaxially growing the active layer on the transferred layer (34, 42) of semiconductor material, at a temperature greater than the deposition temperature of the oxide layer, wherein the silicon oxide layer has a thickness chosen to compensate the bow induced by the mechanical stress between the active layer and the support substrate during cooling of the structure after the epitaxial growth of the active layer on the support substrate.
Nickel based coating consisting of: 15 to 40 weight percent of cobalt, 10 to 23 weight percent of chromium, 5 to 15 weight percent of aluminum, 0,05 to 1 weight percent of yttrium and/or at least one of elements from lanthanum series, 0,05 to 5 weight percent of ruthenium, 0 to 2 weight percent of iridium, 0,05 to 5 weight percent of molybdenum, 0 to 3 weight percent of silicon, 0 to 20 weight percent of iron 0 to 5 weight percent of tantalum, 0 to 2 weight percent of hafnium, and unavoidable impurities such as sulfur, optional, wherein the content of sulfur is reduced to below 10ppm, parts per million, and a balance of nickel.
A floor for a cowshed, comprising a grooved floor element, said grooved floor element comprising a substrate and a walking surface broken by parallel grooves, wherein the walking surface between two neighbouring grooves has a hard region formed by a rigid member and a soft region formed by an elastic member, and wherein the rigid member is fixed to the substrate, wherein the rigid member is a first rigid member, whereas a second rigid member is located at a distance from the first rigid member in longitudinal direction of the grooves and wherein the elastic member comprises a flexible mat which is supported by the substrate, wherein the flexible mat surrounds the first and the second rigid members in the plane of the walking surface and extends up to the neighbouring grooves characterized in that the length of the rigid member as measured in transverse direction of the grooves is larger than 15% of the distance between two neighbouring grooves.
A method for use in vertical seismic profiling, comprising: independently and simultaneously shooting a plurality of seismic sources divided into a plurality of groups respectively operating in a plurality of different shooting areas (205, 210) to impart for each shooting area (205, 210) seismic signals that overlap with each other shooting area (205, 210) into a water bottom, wherein the plurality of seismic sources in each group impart the seismic signals to introduce a degree of randomness into a seismic record by: moving a plurality of towing boats respectively associated with the plurality of seismic sources of the plurality of shooting areas (205, 210) at different speeds such that a time interval at which an interference between the signals shot from the different groups repeats is so long that the interference appears random; receiving reflections of the seismic signals from a subterranean formation beneath the water bottom at a plurality of seismic receivers; and recording the received reflections to obtain the seismic record; wherein, the seismic receivers are disposed in a wellbore in the water bottom. independently and simultaneously shooting a plurality of seismic sources divided into a plurality of groups respectively operating in a plurality of different shooting areas (205, 210) to impart for each shooting area (205, 210) seismic signals that overlap with each other shooting area (205, 210) into a water bottom, wherein the plurality of seismic sources in each group impart the seismic signals to introduce a degree of randomness into a seismic record by: moving a plurality of towing boats respectively associated with the plurality of seismic sources of the plurality of shooting areas (205, 210) at different speeds such that a time interval at which an interference between the signals shot from the different groups repeats is so long that the interference appears random; receiving reflections of the seismic signals from a subterranean formation beneath the water bottom at a plurality of seismic receivers; and recording the received reflections to obtain the seismic record; wherein, the seismic receivers are disposed in a wellbore in the water bottom.
A system for anchoring a location on a surface of a medical infusion device to the skin of a user, the system comprising: - an adhesive substrate (218, 518, 618a-c) for adhering to the skin of the user; and - an interface (430, 530, 630a-c) attaching a portion of said substrate (218, 518, 618a-c) to the surface of the device and wherein said substrate (218, 518, 618a-c) includes a skirt extending beyond said interface (430, 530, 630a-c), said skirt flexibly attached to said interface (430, 530, 630a-c), characterized in that the system further comprises a stiffener (216, 516, 616a-c) stiffening a portion of said skirt, said stiffener (216, 516, 616a-c) being less flexible than said substrate (218, 518, 618), wherein a portion of said stiffener (216, 516, 616a-c) interposes between said interface (430, 530, 630a-c) and said substrate (218, 518, 618a-c), wherein said stiffener (216, 516, 616a-c) includes one or more ribs (228a,b, 528a-d) extending from said interface (430, 530, 630a-c) toward an edge of said substrate (218, 518, 618a-c). - an adhesive substrate (218, 518, 618a-c) for adhering to the skin of the user; and - an interface (430, 530, 630a-c) attaching a portion of said substrate (218, 518, 618a-c) to the surface of the device and wherein said substrate (218, 518, 618a-c) includes a skirt extending beyond said interface (430, 530, 630a-c), said skirt flexibly attached to said interface (430, 530, 630a-c),
A range monitoring system, the system comprising: a first antenna configured to be located at a first location; a second antenna configured to be located at a second location, the first antenna to be spaced from the second antenna; and a transceiver, said transceiver comprising a co-located transmitter and first receiver, said transceiver coupled to said first antenna through a first communication link and said transceiver coupled to said second antenna through a second communication link; said first communication link adapted for maintaining a known or fixed time delay in the presence of relative motion of said first location relative to said second location; and a common time base, said first receiver synchronized in time to said transmitter based on a time synchronization signal from said common time base; said transceiver configured for transmitting a transmitted wide band signal using said first antenna and receiving a received wide band signal responsive to said transmitted wide band signal using said second antenna, said transceiver configured to measure a first time difference between said transmitted wide band signal and said received wide band signal, said first time difference indicative of a first range; wherein the first communication link is a flexible transmission line sufficiently flexible to allow motion of said first antenna relative to said transceiver. a first antenna configured to be located at a first location; a second antenna configured to be located at a second location, the first antenna to be spaced from the second antenna; and a transceiver, said transceiver comprising a co-located transmitter and first receiver, said transceiver coupled to said first antenna through a first communication link and said transceiver coupled to said second antenna through a second communication link; said first communication link adapted for maintaining a known or fixed time delay in the presence of relative motion of said first location relative to said second location; and a common time base, said first receiver synchronized in time to said transmitter based on a time synchronization signal from said common time base; said transceiver configured for transmitting a transmitted wide band signal using said first antenna and receiving a received wide band signal responsive to said transmitted wide band signal using said second antenna, said transceiver configured to measure a first time difference between said transmitted wide band signal and said received wide band signal, said first time difference indicative of a first range; wherein the first communication link is a flexible transmission line sufficiently flexible to allow motion of said first antenna relative to said transceiver.