mhurhangee/ep-ind-claims huggingface dataset:
A multilayer infrared reflecting film comprising: an optical repeating unit comprising a plurality of polymeric layers arranged to reflect light by constructive and destructive interference, the plurality of optical polymeric layers including optical layers A and B, the optical layer A being a high refractive index polymeric layer, and the optical layer B being a low refractive index isotropic polymeric layer comprising one or more fluoropolymers, wherein the plurality of polymeric layers of the optical repeating unit are arranged in an order ABABAB with the thickness ratio of about 7:1:1:7:1:1, wherein the film has an average reflectance from about 50% to about 100% in a near infrared wavelength range of about 850 nm to about 1850 nm, wherein the film has an average transmission from about 70% to about 90% in a visible light range, and wherein the optical layer A absorbs less than 1% light in an ultraviolet wavelength range of about 350 nm to about 400 nm. an optical repeating unit comprising a plurality of polymeric layers arranged to reflect light by constructive and destructive interference, the plurality of optical polymeric layers including optical layers A and B, the optical layer A being a high refractive index polymeric layer, and the optical layer B being a low refractive index isotropic polymeric layer comprising one or more fluoropolymers, wherein the plurality of polymeric layers of the optical repeating unit are arranged in an order ABABAB with the thickness ratio of about 7:1:1:7:1:1, wherein the film has an average reflectance from about 50% to about 100% in a near infrared wavelength range of about 850 nm to about 1850 nm, wherein the film has an average transmission from about 70% to about 90% in a visible light range, and wherein the optical layer A absorbs less than 1% light in an ultraviolet wavelength range of about 350 nm to about 400 nm.
A battery energy storage system, comprising a plurality of battery modules in parallel, each of the battery modules being connected to a liquid cooling system and being provided with a cooling-fluid feeding inlet, characterized in that: the battery energy storage system further comprises a device for flow equalization, the device for flow equalization comprises a plurality of throttle pipes, one of the throttle pipes is provided in each feeding inlet, the throttle pipe is provided with a flow restriction orifice, and cooling fluids that enter the feeding inlets are adjusted by the throttle pipes to equal pressures; the throttle pipe is installed into the feeding inlet, an end of the throttle pipe in an axial direction is provided with a top wall, the top wall is provided with a plurality of flow restriction orifices, areas of the flow restriction orifices of different throttle pipes are different, and by using different combinations of orifice diameters and orifice distributions, resistance coefficients with which the cooling fluids flow through the throttle pipes are adjusted. the battery energy storage system further comprises a device for flow equalization, the device for flow equalization comprises a plurality of throttle pipes, one of the throttle pipes is provided in each feeding inlet, the throttle pipe is provided with a flow restriction orifice, and cooling fluids that enter the feeding inlets are adjusted by the throttle pipes to equal pressures; the throttle pipe is installed into the feeding inlet, an end of the throttle pipe in an axial direction is provided with a top wall, the top wall is provided with a plurality of flow restriction orifices, areas of the flow restriction orifices of different throttle pipes are different, and by using different combinations of orifice diameters and orifice distributions, resistance coefficients with which the cooling fluids flow through the throttle pipes are adjusted.
Bone plate (101; 101'; 101'') for reconstruction or trauma treatment of a bone, in particular of a human bone, for example a mandible, in particular a human mandible, said bone plate (101; 101'; 101") including a main portion with - a first end and a second end, - a first contact face for placing and fastening on a first region of the bone, in particular on the corpus of the mandible, and - a plurality of receiving means (108, 108'), each with at least one in particular circular opening (102, 102') for receiving in each case at least one fastening element, in particular at least one bone screw (301; 340; 350), wherein at least two wings, arranged alongside each other, extend at least from the first end of the main portion, which wings each have: - a second contact face for placing and fastening on a second region of the bone, in particular on an ascending ramus of the mandible, in particular on an outside of the ascending ramus of the mandible, and - at least one receiving means, with in each case at least one in particular circular opening for receiving in each case at least one fastening element, in particular at least one bone screw (301; 340; 350), wherein the main portion and the at least two wings are configured in such a way that the main portion has a first minimum flexural strength with respect to an axis (x) extending perpendicular to the first contact face, and each of the at least two wings has a respective second minimum flexural strength with respect to an axis extending perpendicular to the second contact face, characterized in that the first minimum flexural strength is greater than each of the second minimum flexural strengths, but smaller than the minimum overall flexural strength of all of the wings extending from the first end. - a first end and a second end, - a first contact face for placing and fastening on a first region of the bone, in particular on the corpus of the mandible, and - a plurality of receiving means (108, 108'), each with at least one in particular circular opening (102, 102') for receiving in each case at least one fastening element, in particular at least one bone screw (301; 340; 350), - a second contact face for placing and fastening on a second region of the bone, in particular on an ascending ramus of the mandible, in particular on an outside of the ascending ramus of the mandible, and - at least one receiving means, with in each case at least one in particular circular opening for receiving in each case at least one fastening element, in particular at least one bone screw (301; 340; 350),
A Brassica juncea plant comprising an acetohydroxyacid synthase large subunit (AHASL) polynucleotide encoding a herbicide-tolerant AHASL polypeptide having a threonine substitution at a position corresponding to position 122 of SEQ ID NO: 1, position 107 of SEQ ID NO: 4, or position 104 of SEQ ID NO: 5, wherein the AHASL polynucleotide is non-transgenic, wherein said plant comprises (a) both an A genome comprising the AHASL polynucleotide encoding the AHASL polypeptide having a threonine substitution at the position corresponding to position 104 of SEQ ID NO: 5 and a B genome comprising an AHASL polynucleotide encoding a herbicide-tolerant AHASL polypeptide having an asparagine substitution at a position corresponding to position 638 of SEQ ID NO: 2, wherein said plant is homozygous for both of said AHASL polynucleotides, or (b) both a B genome comprising the AHASL polynucleotide encoding the AHASL polypeptide having a threonine substitution at the position corresponding to position 107 of SEQ ID NO: 4 and an A genome comprising an AHASL polynucleotide encoding a herbicide-tolerant AHASL polypeptide having a leucine substitution at a position corresponding to position 556 of SEQ ID NO: 6, wherein said plant is homozygous for both of said AHASL polynucleotides. (a) both an A genome comprising the AHASL polynucleotide encoding the AHASL polypeptide having a threonine substitution at the position corresponding to position 104 of SEQ ID NO: 5 and a B genome comprising an AHASL polynucleotide encoding a herbicide-tolerant AHASL polypeptide having an asparagine substitution at a position corresponding to position 638 of SEQ ID NO: 2, wherein said plant is homozygous for both of said AHASL polynucleotides, or (b) both a B genome comprising the AHASL polynucleotide encoding the AHASL polypeptide having a threonine substitution at the position corresponding to position 107 of SEQ ID NO: 4 and an A genome comprising an AHASL polynucleotide encoding a herbicide-tolerant AHASL polypeptide having a leucine substitution at a position corresponding to position 556 of SEQ ID NO: 6, wherein said plant is homozygous for both of said AHASL polynucleotides.
Apparatus for thermoforming a plastic material, comprising: a. a mold; b. means for positioning a plastic material adjacent the mold, the plastic material defining integral first and second regions; and c. means (18, 46) for selectively heating the first region to its forming temperature when the plastic material is positioned adjacent the mold, while maintaining the second region at less than its forming temperature when the plastic material is positioned adjacent the mold; in which the mold is configured to be evacuated and the selective heating means (18, 46) is configured so as to thermoform the first region but not thermoform the second region following evacuation of the mold and the selective heating means includes: a. a source of energy; and b. an energy sink which has a depth and at least one cut-out extending through the depth, and the mold defines an upper surface and comprises at least one plug protruding therefrom, characterized in that the plug is generally cylindrical in shape with at least one circumferential notch. a. a mold; b. means for positioning a plastic material adjacent the mold, the plastic material defining integral first and second regions; and c. means (18, 46) for selectively heating the first region to its forming temperature when the plastic material is positioned adjacent the mold, while maintaining the second region at less than its forming temperature when the plastic material is positioned adjacent the mold; a. a source of energy; and b. an energy sink which has a depth and at least one cut-out extending through the depth,
Harvester with: an overhead loading device, which has a first segment, which is mounted movably on the harvester, and a second segment, which is mounted pivotable about a vertical pivot axis on a longitudinal end of the first segment facing away from the harvester, with the result that the second segment is pivotable between a swung-out position, in which the second segment extends as an extension of the length of the first segment, and a swung-in position, in which the second segment is arranged alongside the first segment, and a piston-cylinder unit with a piston rod for driving a pivoting movement of the second segment from one position into the other position, characterized in that the piston-cylinder unit is configured such that a first part of the pivoting movement is realized by extending the piston rod and a second part of the pivoting movement is realized by retracting the piston rod. an overhead loading device, which has a first segment, which is mounted movably on the harvester, and a second segment, which is mounted pivotable about a vertical pivot axis on a longitudinal end of the first segment facing away from the harvester, with the result that the second segment is pivotable between a swung-out position, in which the second segment extends as an extension of the length of the first segment, and a swung-in position, in which the second segment is arranged alongside the first segment, and a piston-cylinder unit with a piston rod for driving a pivoting movement of the second segment from one position into the other position,
An apparatus, comprising: a decoder to decode a downlink control channel transmitted on one or more control channel element(s), CCE(s), in a search space including a plurality of CCEs; processing circuitry to determine an uplink channel resource index based on the one or more CCEs, the uplink channel resource index having an association with one of twelve first-type uplink channel transmission spreading sequences and one of three second-type uplink channel transmission spreading sequences, the three second-type uplink channel transmission spreading sequences being different from the twelve first-type uplink channel transmission spreading sequences; and a transmitter to transmit a response signal on an uplink channel using the one first-type uplink channel transmission spreading sequence and the one second-type uplink channel transmission spreading sequence, wherein: for each of the plural CCE aggregation sizes, the search space is defined by a number of the plurality of CCEs and a starting CCE number of the search space, both being specific to the CCE aggregation size, wherein the twelve first-type uplink channel transmission spreading sequences are separated from each other by different cyclic shift values, and wherein the three second-type uplink channel transmission spreading sequences are substantially orthogonal sequences. a decoder to decode a downlink control channel transmitted on one or more control channel element(s), CCE(s), in a search space including a plurality of CCEs; processing circuitry to determine an uplink channel resource index based on the one or more CCEs, the uplink channel resource index having an association with one of twelve first-type uplink channel transmission spreading sequences and one of three second-type uplink channel transmission spreading sequences, the three second-type uplink channel transmission spreading sequences being different from the twelve first-type uplink channel transmission spreading sequences; and a transmitter to transmit a response signal on an uplink channel using the one first-type uplink channel transmission spreading sequence and the one second-type uplink channel transmission spreading sequence, wherein: for each of the plural CCE aggregation sizes, the search space is defined by a number of the plurality of CCEs and a starting CCE number of the search space, both being specific to the CCE aggregation size, wherein the twelve first-type uplink channel transmission spreading sequences are separated from each other by different cyclic shift values, and wherein the three second-type uplink channel transmission spreading sequences are substantially orthogonal sequences.
Method for managing a pool of rechargeable batteries comprising: • selecting a battery according to predefined initial priority criteria, • charging said selected battery, • measuring electrical parameters representative of said selected battery, method characterized in that it comprises: • analysing the state of health of the selected battery, by comparison of said electrical parameters measured after said battery has been charged with preset thresholds, or by detecting a break in the evolution of said electrical parameters measured during a preset period after the battery has been charged. • updating the priority criteria according to the analysis of the state of health of said battery, • selecting the next battery according to the updated priority criteria. • selecting a battery according to predefined initial priority criteria, • charging said selected battery, • measuring electrical parameters representative of said selected battery, • analysing the state of health of the selected battery, by comparison of said electrical parameters measured after said battery has been charged with preset thresholds, or by detecting a break in the evolution of said electrical parameters measured during a preset period after the battery has been charged. • updating the priority criteria according to the analysis of the state of health of said battery, • selecting the next battery according to the updated priority criteria.
A method for transferring a security context for a user equipment (70, 430, 700) in an idle mode, the method implemented by one or more core network nodes (320, 600) in a core network of a wireless communication network, wherein the one or more core network nodes (320, 600) provide a source Access and Mobility Management Function, the method comprising: receiving, from a target Access and Mobility Management Function, a request for a security context for the user equipment (70, 430, 700); generating a new non-access stratum key responsive to determining that an operator specific security policy is met; and sending, responsive to the request, the new non-access stratum key and a key change indication comprising a key change indicator flag to the target Access and Mobility Management Function, wherein the key change indicator flag is set to a value indicating that a non-access stratum key has been changed. receiving, from a target Access and Mobility Management Function, a request for a security context for the user equipment (70, 430, 700); generating a new non-access stratum key responsive to determining that an operator specific security policy is met; and sending, responsive to the request, the new non-access stratum key and a key change indication comprising a key change indicator flag to the target Access and Mobility Management Function, wherein the key change indicator flag is set to a value indicating that a non-access stratum key has been changed.
A method comprising: performing one or more resistance measurements on a resistance coupon on a printed circuit board panel; determining a first conversion factor based on an amount of resistance per unit distance determined during the one or more resistance measurements; measuring a first resistance between a first center terminal and a first peripheral terminal of a first registration coupon on the PCB panel including at least one PCB; measuring a second resistance between the first center terminal and a second peripheral terminal of the first registration coupon, wherein the first and second peripheral terminals are associated with a first internal layer of the PCB; determining a difference between the first and second resistances; and determining a distance of misregistration between the first internal layer and a center terminal, if any, along a first axis, based on the difference between the first and second resistances and the first conversion factor. performing one or more resistance measurements on a resistance coupon on a printed circuit board panel; determining a first conversion factor based on an amount of resistance per unit distance determined during the one or more resistance measurements; measuring a first resistance between a first center terminal and a first peripheral terminal of a first registration coupon on the PCB panel including at least one PCB; measuring a second resistance between the first center terminal and a second peripheral terminal of the first registration coupon, wherein the first and second peripheral terminals are associated with a first internal layer of the PCB; determining a difference between the first and second resistances; and determining a distance of misregistration between the first internal layer and a center terminal, if any, along a first axis, based on the difference between the first and second resistances and the first conversion factor.
A method for controlling a thermal conditioning circuit for an air flow, in particular intended for a passenger compartment of a motor vehicle, the circuit comprising a heat exchanger configured to be traversed by a refrigerant fluid and to exchange heat with the air flow, the heat exchanger being configured to operate selectively in at least: - a so-called cooling mode in which the air flow is cooled, - a so-called heating mode in which the air flow is heated, characterized in that the method comprises the steps of: - evaluating a level of humidity in a region in contact with an outer surface of the heat exchanger, (step 60) - detecting a command to switch from the cooling mode to the heating mode, (step 61) - if the evaluated humidity level is lower than a first predetermined threshold, allowing the circulation of refrigerant fluid in the heat exchanger in response to the command to switch to the heating mode, (step 62) - if the evaluated humidity level is higher than a second predetermined threshold, preventing the circulation of the refrigerant fluid in the heat exchanger for a first predetermined duration in order to delay the switching to the heating mode, (step 63), wherein the second threshold is greater than or equal to the first threshold. the circuit comprising a heat exchanger configured to be traversed by a refrigerant fluid and to exchange heat with the air flow, the heat exchanger being configured to operate selectively in at least: - a so-called cooling mode in which the air flow is cooled, - a so-called heating mode in which the air flow is heated, - a so-called cooling mode in which the air flow is cooled, - a so-called heating mode in which the air flow is heated, characterized in that the method comprises the steps of: - evaluating a level of humidity in a region in contact with an outer surface of the heat exchanger, (step 60) - detecting a command to switch from the cooling mode to the heating mode, (step 61) - if the evaluated humidity level is lower than a first predetermined threshold, allowing the circulation of refrigerant fluid in the heat exchanger in response to the command to switch to the heating mode, (step 62) - if the evaluated humidity level is higher than a second predetermined threshold, preventing the circulation of the refrigerant fluid in the heat exchanger for a first predetermined duration in order to delay the switching to the heating mode, (step 63), - evaluating a level of humidity in a region in contact with an outer surface of the heat exchanger, (step 60) - detecting a command to switch from the cooling mode to the heating mode, (step 61) - if the evaluated humidity level is lower than a first predetermined threshold, allowing the circulation of refrigerant fluid in the heat exchanger in response to the command to switch to the heating mode, (step 62) - if the evaluated humidity level is higher than a second predetermined threshold, preventing the circulation of the refrigerant fluid in the heat exchanger for a first predetermined duration in order to delay the switching to the heating mode, (step 63), wherein the second threshold is greater than or equal to the first threshold.
An isolated polypeptide that binds specifically to BACE1, wherein the polypeptide comprises the amino acid sequence of KEESIYCRLMGLGCG (SEQ ID NO: 14).
A communications system comprising: at least one audio input port, the port including; an input audio transducer coupled to control circuitry for producing real time streaming digitized audio in a transmittable format; a database of specifiable locations and selectable audio destinations in respective locations, wherein the control circuitry and the database are coupled to a bidirectional port for communicating with destination units at selected locations via a computer network, characterised in the control circuitry forwarding the audio and location specifying and destination selecting information via the bidirectional port, to destination units at only the selected locations, and wherein the control circuitry, via the bidirectional port, receives images from destination units at only the selected locations. at least one audio input port, the port including; an input audio transducer coupled to control circuitry for producing real time streaming digitized audio in a transmittable format; a database of specifiable locations and selectable audio destinations in respective locations, wherein the control circuitry and the database are coupled to a bidirectional port for communicating with destination units at selected locations via a computer network, characterised in the control circuitry forwarding the audio and location specifying and destination selecting information via the bidirectional port, to destination units at only the selected locations, and wherein the control circuitry, via the bidirectional port, receives images from destination units at only the selected locations.