mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the sequence of a polymer, comprising: a) electrophoretically and/or electroosmotically driving a polymer from a bulk solution through a transmembrane channel into a confined volume of a chamber having a volume of 100 zeptoliters to 1 picoliter; whereby the polymer contacts an enzyme in the confined volume of the chamber attached to an interior surface of the chamber, under conditions in which the enzyme sequentially cleaves one or more monomeric units or groups of monomeric units from the polymer at a maximum operating frequency; b) electrophoretically and/or electroosmotically driving the monomeric units in the order which they are sequentially cleaved from the polymer by the enzyme out of the confined volume of the chamber through the transmembrane channel in a period of time less than or equal to the maximum operating frequency of the enzyme; and c) determining the identity of each of the monomeric units based on its current signature, translocation time, and/or associated current noise level modulation as the monomeric unit translocates through the transmembrane channel, thereby determining the sequence of the polymer. a) electrophoretically and/or electroosmotically driving a polymer from a bulk solution through a transmembrane channel into a confined volume of a chamber having a volume of 100 zeptoliters to 1 picoliter; whereby the polymer contacts an enzyme in the confined volume of the chamber attached to an interior surface of the chamber, under conditions in which the enzyme sequentially cleaves one or more monomeric units or groups of monomeric units from the polymer at a maximum operating frequency; b) electrophoretically and/or electroosmotically driving the monomeric units in the order which they are sequentially cleaved from the polymer by the enzyme out of the confined volume of the chamber through the transmembrane channel in a period of time less than or equal to the maximum operating frequency of the enzyme; and c) determining the identity of each of the monomeric units based on its current signature, translocation time, and/or associated current noise level modulation as the monomeric unit translocates through the transmembrane channel, thereby determining the sequence of the polymer.
Method for inverse tone mapping of an image, the colors of which are represented in a color space separating luminance from chrominance, comprising: - obtaining a pixel expansion exponent value E'(p) for each pixel (p) of said image, by low pass filtering luminance values of colors of pixels in the spatial neighborhood of said pixel, - obtaining a pixel luminance-enhancement value Y enhance (p) for each pixel (p) of said image, by extraction of high frequencies of luminance values of colors of pixels in the spatial neighborhood of said pixel, - inverse tone mapping the luminance Y(p) of each pixel (p) of said image into an expanded luminance Y exp (p) obtained through the product of the luminance Y(p) of said pixel at the power of the pixel expansion exponent value E'(p) obtained for this pixel and of the pixel luminance-enhancement value Y enhance (p) obtained for said pixel at the power of an exponent parameter c, which is superior or equal to 1. - obtaining a pixel expansion exponent value E'(p) for each pixel (p) of said image, by low pass filtering luminance values of colors of pixels in the spatial neighborhood of said pixel, - obtaining a pixel luminance-enhancement value Y enhance (p) for each pixel (p) of said image, by extraction of high frequencies of luminance values of colors of pixels in the spatial neighborhood of said pixel, - inverse tone mapping the luminance Y(p) of each pixel (p) of said image into an expanded luminance Y exp (p) obtained through the product of the luminance Y(p) of said pixel at the power of the pixel expansion exponent value E'(p) obtained for this pixel and of the pixel luminance-enhancement value Y enhance (p) obtained for said pixel at the power of an exponent parameter c, which is superior or equal to 1.
A method for communication, comprising: receiving (820, 1302) a transport block size, TBS, configuration containing at least a portion of a frequency-domain resource allocation; receiving (824, 1304) a downlink control information, DCI, message having an additional portion of the frequency-domain resource allocation, the TBS configuration and the additional portion of the frequency-domain resource allocation having frequency-domain resource allocation information to support data communication wherein a frequency-domain resource assignment field in the DCI message comprises bits identifying a beginning resource block, RB, location in a communication stream; and after identifying the beginning resource block, RB, location, inferring (830, 1306) based on the TBS configuration a total number of resource blocks to support data communication. receiving (820, 1302) a transport block size, TBS, configuration containing at least a portion of a frequency-domain resource allocation; receiving (824, 1304) a downlink control information, DCI, message having an additional portion of the frequency-domain resource allocation, the TBS configuration and the additional portion of the frequency-domain resource allocation having frequency-domain resource allocation information to support data communication wherein a frequency-domain resource assignment field in the DCI message comprises bits identifying a beginning resource block, RB, location in a communication stream; and after identifying the beginning resource block, RB, location, inferring (830, 1306) based on the TBS configuration a total number of resource blocks to support data communication.
A cooling device management system, which is connected to a cooling device including a plurality of units (11, 12) which has a function of carrying out coolant leakage detection driving configured to detect leaks of coolant in a coolant circuit to the outside, comprising: a transmission section (25e, 35) configured to transmit instructions to the cooling device; a reception section (25a, 35) configured to receive information from the cooling device; a coolant leakage detection schedule setting section (23, 33) configured to receive inputting of settings for a coolant leakage detection schedule for carrying out the coolant leakage detection driving in the cooling device; a schedule executing section (25b, 35) configured to transmit instructions to carry out the coolant leakage detection driving from the transmission section (25e, 35) to the cooling device based on the coolant leakage detection schedule which is received using the coolant leakage detection schedule setting section (23, 33); and a display section (22, 32) configured to output the results of the coolant leakage detection driving which is based on the information which is received from the cooling device; characterized by a normal schedule setting section configured to receive inputting of settings for a normal schedule which includes at least a schedule for starting driving and stopping driving for a specific unit of the cooling device, wherein the schedule executing section (25b, 35) prioritizes the coolant leakage detection schedule over the normal schedule. a transmission section (25e, 35) configured to transmit instructions to the cooling device; a reception section (25a, 35) configured to receive information from the cooling device; a coolant leakage detection schedule setting section (23, 33) configured to receive inputting of settings for a coolant leakage detection schedule for carrying out the coolant leakage detection driving in the cooling device; a schedule executing section (25b, 35) configured to transmit instructions to carry out the coolant leakage detection driving from the transmission section (25e, 35) to the cooling device based on the coolant leakage detection schedule which is received using the coolant leakage detection schedule setting section (23, 33); and a display section (22, 32) configured to output the results of the coolant leakage detection driving which is based on the information which is received from the cooling device; characterized by a normal schedule setting section configured to receive inputting of settings for a normal schedule which includes at least a schedule for starting driving and stopping driving for a specific unit of the cooling device, wherein the schedule executing section (25b, 35) prioritizes the coolant leakage detection schedule over the normal schedule.
Electronic card comprising: - A support; - A processor; - A cold source; - A heat sink (1, 1'), comprising: ∘ a main heat exchange zone (3,3') able to bear against a processor; ∘ at least one peripheral heat exchange zone (4, 4') able to be in thermal contact with a cold source, ∘ at least one heat pipe (5, 5') connecting the main heat exchange zone (3, 3') to the peripheral heat exchange zone (4, 4'), the heat pipe (5, 5') containing a heat transfer fluid; the processor being located between the heat sink (1, 1') and the support, the main heat exchange zone (3, 3') bearing on the processor, characterised in that the peripheral heat exchange zone (4, 4') is thermally connected to the cold source, the cold source being a cold plate extending in parallel to the support, the electronic card further comprising electronic components other than the processor, these electronic components being fastened onto the support, the cold plate covering all of the electronic components fastened on the support which have a height less than the sum of: - the distance between the cold plate and the support; and of - the thickness of the cold plate. - A support; - A processor; - A cold source; - A heat sink (1, 1'), comprising: ∘ a main heat exchange zone (3,3') able to bear against a processor; ∘ at least one peripheral heat exchange zone (4, 4') able to be in thermal contact with a cold source, ∘ at least one heat pipe (5, 5') connecting the main heat exchange zone (3, 3') to the peripheral heat exchange zone (4, 4'), the heat pipe (5, 5') containing a heat transfer fluid; ∘ a main heat exchange zone (3,3') able to bear against a processor; ∘ at least one peripheral heat exchange zone (4, 4') able to be in thermal contact with a cold source, ∘ at least one heat pipe (5, 5') connecting the main heat exchange zone (3, 3') to the peripheral heat exchange zone (4, 4'), the heat pipe (5, 5') containing a heat transfer fluid; - the distance between the cold plate and the support; and of - the thickness of the cold plate.
A nucleic acid molecule encoding a T-cell receptor molecule directed against a mutated TGFβRII protein which comprises the sequence of SEQ ID NO: 1, wherein said TCR molecule is capable of binding a peptide of SEQ ID NO: 1 when said peptide is presented by a Class I Major Histocompatibility Complex comprising HLA-A2, wherein said TCR molecule, when expressed by an immune effector cell, is located on the surface of the cell, and wherein said TCR molecule comprises an α-chain domain and a β-chain domain, wherein said α-chain domain comprises: i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 8; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 9, or a murinised version of SEQ ID NO: 9; and said β-chain domain comprises: i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 13; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 14, or a murinised version of SEQ ID NO: 14. wherein said α-chain domain comprises: i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 8; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 9, or a murinised version of SEQ ID NO: 9; and i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 8; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 9, or a murinised version of SEQ ID NO: 9; and said β-chain domain comprises: i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 13; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 14, or a murinised version of SEQ ID NO: 14. i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 13; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 14, or a murinised version of SEQ ID NO: 14.
Gas generator (20; 120; 220; 320) for a tool, in particular for a handheld tool, comprising an electrolytic cell (30; 130; 230; 330) with a hollow cell body, a first electrode (33; 133; 233; 333) and a second electrode, said first electrode (33; 133; 233; 333) and said second electrode (35; 135; 235; 335) are separated by at least one electrically non-conductive separator (37, 38; 137, 138; 237; 337) in said hollow cell body, characterized in that, a gas extraction tube is arranged in the hollow cell body wherein said hollow body comprises a length in at least one dimension and said gas extraction tube extends at least between one third and two thirds of the length of the hollow cell body.
A modified peptide or a pharmaceutically acceptable salt thereof, wherein the modified peptide has a structure represented by the formula of one of the following compounds 2-1, 2-3, 2-10, 2-11, 2-12, 2-13, 2-14, 2-15, 2-16, 2-25, 2-26, 2-27, 2-29, or 2-30: wherein hANP is hANP consisting of the amino acid sequence of SEQ ID NO: 1 and is bonded at the N terminus of the amino acid sequence to the linker structure through an amide bond; AG is a sugar substance represented by following formula wherein Gxx is GlcNAc and "O/N-L" represents binding to the linker structure through an O-glycosidic bond; AG is a sugar substance represented by following formula wherein Gxx is GlcNAc and "O/N-L" represents binding to the linker structure through an O-glycosidic bond; AG is a sugar substance represented by following formula wherein Gxx is GlcNAc and "O/N-L" represents binding to the linker structure through an O-glycosidic bond; and SG is a sugar substance represented by following formula wherein Gxx is GlcNAc and "O/N-L" represents binding to the linker structure through an O-glycosidic bond. AG is a sugar substance represented by following formula wherein Gxx is GlcNAc and "O/N-L" represents binding to the linker structure through an O-glycosidic bond; AG is a sugar substance represented by following formula wherein Gxx is GlcNAc and "O/N-L" represents binding to the linker structure through an O-glycosidic bond; AG is a sugar substance represented by following formula wherein Gxx is GlcNAc and "O/N-L" represents binding to the linker structure through an O-glycosidic bond; and SG is a sugar substance represented by following formula wherein Gxx is GlcNAc and "O/N-L" represents binding to the linker structure through an O-glycosidic bond.
A method for resolving a call collision in a communication network, said method comprising, at one or two network nodes (12; 12a, 12b) of said communication network, said network nodes (12; 12a, 12b) being application servers of said communication network: a) receiving a first call request message from a first user device to set up a call from said first user device to a second user device; b) checking whether, substantially at the same time, said second user device has in turn sent a second call request message to set up a call from said second user device to said first user device; and c) in the affirmative, routing said first call request message and said second call request message to a conference bridge, and d) at said conference bridge, bridging said calls together in a conference call handled by said conference bridge. a) receiving a first call request message from a first user device to set up a call from said first user device to a second user device; b) checking whether, substantially at the same time, said second user device has in turn sent a second call request message to set up a call from said second user device to said first user device; and c) in the affirmative, routing said first call request message and said second call request message to a conference bridge, and d) at said conference bridge, bridging said calls together in a conference call handled by said conference bridge.
Electrical circuit breaker device with automatic extinction, such as a circuit breaker or a disconnecting switch, comprising: - a first contact and a second contact extending in the prolongation of each other, with at least one of the contacts able to be moved in translation with respect to the other contact between a closed position in which the two contacts are bearing against each other and an open position wherein the two contacts are spaced apart from each other; - a switching chamber surrounding the two contacts to delimit a closed space when the contacts are in the closed position; - a central channel (12, 13) in at least one of the contacts (3, 4), with this central channel (12, 13) opening towards the other contact (3, 4) while being intended to allow for the discharging of gases coming from the switching chamber in the opening phase of the device; - an insulating member carried by the other contact and engaging in the channel (12, 13) in the closed position, characterised in that this insulating member extends between the two contacts (3, 4) in the open position; and wherein this insulating member is made from a material that is ablated under the effect of the heat generated by an arc that is established between the contacts (3, 4) in the opening phase, in order to render more substantial the increase in the pressure that is established in the switching chamber in case of appearance of such an arc in the opening phase of the circuit breaker. - a first contact and a second contact extending in the prolongation of each other, with at least one of the contacts able to be moved in translation with respect to the other contact between a closed position in which the two contacts are bearing against each other and an open position wherein the two contacts are spaced apart from each other; - a switching chamber surrounding the two contacts to delimit a closed space when the contacts are in the closed position; - a central channel (12, 13) in at least one of the contacts (3, 4), with this central channel (12, 13) opening towards the other contact (3, 4) while being intended to allow for the discharging of gases coming from the switching chamber in the opening phase of the device; - an insulating member carried by the other contact and engaging in the channel (12, 13) in the closed position, characterised in that this insulating member extends between the two contacts (3, 4) in the open position;
A curable fire retardant composition comprising: (a) a monomer, oligomer or polymer, or any mixture thereof; (b) a compatible siloxane; and (c) optionally, an additional fire retardant additive. wherein the composition is in liquid form at 25C, and wherein component (a) is a mixture of epoxies selected from the group consisting of diglycidyl ethers of bisphenol A, hydrogenated bisphenol A, diglycidyl ethers of bisphenol F, hydrogenated bisphenol F, epoxy novolac, cycloaliphatic epoxies, and tri- and tetra-functional glycidyl functional tertiary amines. (a) a monomer, oligomer or polymer, or any mixture thereof; (b) a compatible siloxane; and (c) optionally, an additional fire retardant additive. wherein the composition is in liquid form at 25C, and wherein component (a) is a mixture of epoxies selected from the group consisting of diglycidyl ethers of bisphenol A, hydrogenated bisphenol A, diglycidyl ethers of bisphenol F, hydrogenated bisphenol F, epoxy novolac, cycloaliphatic epoxies, and tri- and tetra-functional glycidyl functional tertiary amines.
A distributed optical fibre sensor for sensing an environment, as a function of position along each of a plurality of sensing optical fibres (10a - 10d) passing through the environment, from properties of probe light backscattered within the sensing optical fibres, the sensor comprising: a plurality of interrogators (5a - 5d), each interrogator comprising a probe light source arranged to generate pulses of probe light for transmission to a sensing optical fibre coupled to the interrogator, and a detector arranged to receive and detect probe light backscattered within the sensing optical fibre and being arranged to output a signal corresponding to the detected probe light; a plurality of signal processors, each signal processor arranged to receive a signal output by one or more of the plurality of interrogators, and to derive from the output signal one or more parameters of the environment proximal to the coupled sensing optical fibre; and a data switching facility arranged to couple the plurality of interrogators to the plurality of signal processors, the distributed optical fibre sensor being arranged to automatically reroute a signal output by a particular interrogator, using the data switching facility, from being received by a current signal processor to being received by a different signal processor. a plurality of interrogators (5a - 5d), each interrogator comprising a probe light source arranged to generate pulses of probe light for transmission to a sensing optical fibre coupled to the interrogator, and a detector arranged to receive and detect probe light backscattered within the sensing optical fibre and being arranged to output a signal corresponding to the detected probe light; a plurality of signal processors, each signal processor arranged to receive a signal output by one or more of the plurality of interrogators, and to derive from the output signal one or more parameters of the environment proximal to the coupled sensing optical fibre; and a data switching facility arranged to couple the plurality of interrogators to the plurality of signal processors, the distributed optical fibre sensor being arranged to automatically reroute a signal output by a particular interrogator, using the data switching facility, from being received by a current signal processor to being received by a different signal processor.
An apparatus having a concentrated feed station for dispensing concentrated feed to animals, such as cattle or pigs, and/or having a milking station, having a sensor device (28; 48) which recognizes the respective animal and which controls the dispensing of concentrated feed in an animal-specific manner via a control apparatus, and having a nozzle device, wherein the sensor device (28; 48) comprises a system which recognizes animal-specific transponders or an image processing device or video recognition system which recognizes the animal; wherein the nozzle device is connected or connectable via line means to storage containers, with the nozzle device being provided to dispense different liquid treatment agents which are contained in the respective storage containers; and wherein a control is provided with which the sensor device (28; 48) or the control apparatus communicates to carry out the dispensing of the respective treatment agent in an animal-specific manner, characterized in that the nozzle device is configured to apply and/or to distribute the respective treatment agent onto the nose, onto the mouth and nose and/or onto a mucous membrane region of the animal.