mhurhangee/ep-ind-claims huggingface dataset:
An antenna assembly comprising: a primary reflector having a concave reflecting surface configured to direct electromagnetic energy; a secondary reflector within a concavity formed in the primary reflector having a convex reflecting surface configured to direct electromagnetic energy toward the primary reflector; a primary feed having a patterned emitting surface; three or more antenna input feeds each connected to the patterned antenna emitting surface of the primary feed; and three or more connectors exposed on an external surface of the antenna assembly wherein each connector is configured to couple to one of the three or more antenna input feeds and configured to transmit radio frequency, RF, signals for a different polarization to each of the antenna input feeds, wherein the patterned emitting surface comprises a flat surface having one or more openings therethrough and a plurality of folded-over regions continuous with the flat upper surface; and the patterned emitting surface is configured to emit the RF signals having different polarizations from different locations for the different polarizations towards the secondary reflector, wherein the patterned emitting surface, the primary and the secondary reflectors are configured such that beams corresponding to the different polarizations are reflected from different regions of the primary and secondary reflectors. a primary reflector having a concave reflecting surface configured to direct electromagnetic energy; a secondary reflector within a concavity formed in the primary reflector having a convex reflecting surface configured to direct electromagnetic energy toward the primary reflector; a primary feed having a patterned emitting surface; three or more antenna input feeds each connected to the patterned antenna emitting surface of the primary feed; and three or more connectors exposed on an external surface of the antenna assembly wherein each connector is configured to couple to one of the three or more antenna input feeds and configured to transmit radio frequency, RF, signals for a different polarization to each of the antenna input feeds, wherein the patterned emitting surface comprises a flat surface having one or more openings therethrough and a plurality of folded-over regions continuous with the flat upper surface; and the patterned emitting surface is configured to emit the RF signals having different polarizations from different locations for the different polarizations towards the secondary reflector, wherein the patterned emitting surface, the primary and the secondary reflectors are configured such that beams corresponding to the different polarizations are reflected from different regions of the primary and secondary reflectors.
A photoelectric detector comprising at least one photoelectric detection circuit each of the at least one photoelectric detection circuits comprising a first sub-circuit and a second sub-circuit, wherein the first sub-circuit comprises a first photoelectric sensing element, and the second sub-circuit comprises a second photoelectric sensing element, and wherein an electrical characteristic of the first photoelectric sensing element is substantially identical to an electrical characteristic of the second photoelectric sensing element, and the second photoelectric sensing element is shielded to prevent light from being incident on the second photoelectric sensing element, the photoelectric detection circuit further comprises a difference circuit coupled to the first sub-circuit and the second sub-circuit, wherein the difference circuit is configured to perform a difference processing on a first output signal output by the first sub-circuit and a second output signal output by the second sub-circuit corresponding to each other, characterized in that each of the at least one photoelectric detection circuit comprises one first sub-circuit and a plurality of second sub-circuits. wherein the first sub-circuit comprises a first photoelectric sensing element, and the second sub-circuit comprises a second photoelectric sensing element, and wherein an electrical characteristic of the first photoelectric sensing element is substantially identical to an electrical characteristic of the second photoelectric sensing element, and the second photoelectric sensing element is shielded to prevent light from being incident on the second photoelectric sensing element, the photoelectric detection circuit further comprises a difference circuit coupled to the first sub-circuit and the second sub-circuit, wherein the difference circuit is configured to perform a difference processing on a first output signal output by the first sub-circuit and a second output signal output by the second sub-circuit corresponding to each other, characterized in that each of the at least one photoelectric detection circuit comprises one first sub-circuit and a plurality of second sub-circuits.
A method of operating an intermediate network entity between a mobile node in a foreign network and a correspondent node, said intermediate network entity being located in the foreign network visited by the mobile node, the method comprising: performing a registration process comprising registering with the foreign network and allocating to the mobile node a care-of address (CoA) within the foreign network; as part of the registration process allocating a secondary care-of address (SCoA) to the intermediate network entity; receiving, in a session between the correspondent node and the mobile node, at least one session packet in a tunnel from a home agent in a home network of the mobile node to the intermediate network entity, wherein the session packet has the secondary care-of address as the destination address; decapsulating the session packet; and forwarding the decapsulated session packet to the mobile node. performing a registration process comprising registering with the foreign network and allocating to the mobile node a care-of address (CoA) within the foreign network; as part of the registration process allocating a secondary care-of address (SCoA) to the intermediate network entity; receiving, in a session between the correspondent node and the mobile node, at least one session packet in a tunnel from a home agent in a home network of the mobile node to the intermediate network entity, wherein the session packet has the secondary care-of address as the destination address; decapsulating the session packet; and forwarding the decapsulated session packet to the mobile node.
A method for determining power loss in a transformer, comprising: measuring voltage and current (V ∼ H, I ∼ H) at a primary side of the transformer; calculating input power by multiplying the measured current and voltage on the primary side of the transformer; measuring voltage and current (V ∼ L, I ∼ L) at a secondary side of the transformer; calculating output power by multiplying the measured current and voltage on the secondary side of the transformer; calculating a nominal error ratio; calculating a first corrected power loss by means of multiplying the input power with a first correction factor which is the complex conjugate of the nominal error ratio and subtract the output power wherein the nominal error ratio n ∼ /n is: n ∼ / n = 1 + ε IL / 1 + ε IH where ε IL is a complex number representing the error in the current measurement on the secondary side of the transformer, and ε IH is a complex number representing the error in the current measurement on the primary side of the transformer. measuring voltage and current (V ∼ H, I ∼ H) at a primary side of the transformer; calculating input power by multiplying the measured current and voltage on the primary side of the transformer; measuring voltage and current (V ∼ L, I ∼ L) at a secondary side of the transformer; calculating output power by multiplying the measured current and voltage on the secondary side of the transformer; calculating a nominal error ratio; calculating a first corrected power loss by means of multiplying the input power with a first correction factor which is the complex conjugate of the nominal error ratio and subtract the output power wherein the nominal error ratio n ∼ /n is: n ∼ / n = 1 + ε IL / 1 + ε IH where ε IL is a complex number representing the error in the current measurement on the secondary side of the transformer, and ε IH is a complex number representing the error in the current measurement on the primary side of the transformer.
A method for interacting with an object (6a-6c) which is displayed to a user via smart glasses, wherein the smart glasses comprise a display, the method comprising the steps of: displaying the object (6a-6c) for the user using the display of the smart glasses; detecting that the user closes a first eye and keeps the first eye closed during a specified period of time using a first camera which records the first eye of the user; recording a hand of the user using a second camera; ascertaining the position of the smart glasses relative to the second eye of the user using a third camera of the smart glasses which is directed toward the second eye; determining that the user performs an input action for the object (6a-6c) during the specified period of time; wherein the input action includes the hand of the user assuming a configuration and, from the perspective of the second eye of the user, a position with respect to the object that satisfy a predetermined condition; and carrying out an action with respect to the object (6a-6c), wherein the action is associated with the input action in advance. displaying the object (6a-6c) for the user using the display of the smart glasses; detecting that the user closes a first eye and keeps the first eye closed during a specified period of time using a first camera which records the first eye of the user; recording a hand of the user using a second camera; ascertaining the position of the smart glasses relative to the second eye of the user using a third camera of the smart glasses which is directed toward the second eye; determining that the user performs an input action for the object (6a-6c) during the specified period of time; wherein the input action includes the hand of the user assuming a configuration and, from the perspective of the second eye of the user, a position with respect to the object that satisfy a predetermined condition; and carrying out an action with respect to the object (6a-6c), wherein the action is associated with the input action in advance.
An ultrasonic tip (16, 116) for a surgical instrument, configured for at least torsional vibration, said ultrasonic tip (16, 116) comprising: a head portion (32, 132) adapted to be coupled to a shaft (12, 112), said head portion (32, 132) extending axially along an axial axis (37, 137) to a distal end (38, 138), and said head portion comprising an inner circumferential surface opposite an outer circumferential surface with a plurality of slots (36, 136) extending between the inner and outer circumferential surfaces to form a plurality of teeth (34, 134) separated by said plurality of slots (36, 136), characterized in that: the depth of the slots (36, 136) at the outer circumferential surface of the head portion (32, 132) is greater than that at the inner circumferential surface, and each tooth (34, 134) comprises a side cutting edge (40, 140) having a positive rake angle, said side cutting edge (40, 140) defined between the outer circumferential surface of said head portion (32, 132) and a side surface of said slot (36, 136), the side surface of said slot (36, 136) extending between the inner and outer circumferential surfaces of the head portion (32, 132). a head portion (32, 132) adapted to be coupled to a shaft (12, 112), said head portion (32, 132) extending axially along an axial axis (37, 137) to a distal end (38, 138), and said head portion comprising an inner circumferential surface opposite an outer circumferential surface with a plurality of slots (36, 136) extending between the inner and outer circumferential surfaces to form a plurality of teeth (34, 134) separated by said plurality of slots (36, 136), characterized in that: the depth of the slots (36, 136) at the outer circumferential surface of the head portion (32, 132) is greater than that at the inner circumferential surface, and each tooth (34, 134) comprises a side cutting edge (40, 140) having a positive rake angle, said side cutting edge (40, 140) defined between the outer circumferential surface of said head portion (32, 132) and a side surface of said slot (36, 136), the side surface of said slot (36, 136) extending between the inner and outer circumferential surfaces of the head portion (32, 132). the depth of the slots (36, 136) at the outer circumferential surface of the head portion (32, 132) is greater than that at the inner circumferential surface, and each tooth (34, 134) comprises a side cutting edge (40, 140) having a positive rake angle, said side cutting edge (40, 140) defined between the outer circumferential surface of said head portion (32, 132) and a side surface of said slot (36, 136), the side surface of said slot (36, 136) extending between the inner and outer circumferential surfaces of the head portion (32, 132).
A vaccine comprising: a. a soluble fragment of the Nipah virus G glycoprotein, said fragment consisting of amino acids 71 to 602 of SEQ ID NO: 4 or a sequence at least 95% identical thereto; b. an immunostimulatory complex, said ISC comprising a saponin; a phospholipid selected from the group consisting of phosphatidyl choline, dipalmitoyl phosphatidyl choline (DPPC), phosphatidic acid (phosphatidate), phosphatidylethanolamine, phosphatidylserine, phosphatidylinositol, phosphatidylinositol phosphate, phosphatidylinositol bisphosphate, phosphatidylinositol triphosphate, phosphorylcholine, ceramide phosphorylethanolamine (Cer-PE) and ceramide phosphorylglycerol; and cholesterol; and c. one or more excipients; for use in prevention of an infection caused by Hendra and/or Nipah virus in a horse or a pig, wherein said vaccine is administered to said horse or said pig in a first dose and a second dose, wherein each of said doses comprises 50-100 μg of said soluble fragment of the Nipah virus G glycoprotein. a. a soluble fragment of the Nipah virus G glycoprotein, said fragment consisting of amino acids 71 to 602 of SEQ ID NO: 4 or a sequence at least 95% identical thereto; b. an immunostimulatory complex, said ISC comprising a saponin; a phospholipid selected from the group consisting of phosphatidyl choline, dipalmitoyl phosphatidyl choline (DPPC), phosphatidic acid (phosphatidate), phosphatidylethanolamine, phosphatidylserine, phosphatidylinositol, phosphatidylinositol phosphate, phosphatidylinositol bisphosphate, phosphatidylinositol triphosphate, phosphorylcholine, ceramide phosphorylethanolamine (Cer-PE) and ceramide phosphorylglycerol; and cholesterol; and c. one or more excipients;
An insulating coating treatment solution for forming an insulating coating on a surface of metal, comprising: a phosphate of at least one selected from the group consisting of Mg, Ca, Ba, Sr, Zn, Al and Mn; and two or more types of colloidal silicas having different mean particle diameters, wherein a total content of the two or more types of colloidal silicas in terms of SiO 2 solid content is 50 to 120 parts by mass with respect to 100 parts by mass of the phosphate in terms of solid content, wherein, when each of mean particle diameters of the two or more types of colloidal silicas is defined as r 1,..., r n in order of increasing size, a mean particle diameter ratio expressed by r i+1 /r i is not less than 1.9, wherein, when each of masses of the two or more types of colloidal silicas in terms of SiO 2 solid content is defined as w 1,...,..., w n in order of increasing mean particle diameter, a mass ratio expressed by w i+1 /(w i+1 +w i) is 0.50 to 0.80, where n represents an integer of at least 2, and i represents an integer of 1 to (n-1), and wherein the each of mean particle diameters of the two or more types of colloidal silicas is 1.0 to 150 nm. a phosphate of at least one selected from the group consisting of Mg, Ca, Ba, Sr, Zn, Al and Mn; and two or more types of colloidal silicas having different mean particle diameters, wherein a total content of the two or more types of colloidal silicas in terms of SiO 2 solid content is 50 to 120 parts by mass with respect to 100 parts by mass of the phosphate in terms of solid content, wherein, when each of mean particle diameters of the two or more types of colloidal silicas is defined as r 1,..., r n in order of increasing size, a mean particle diameter ratio expressed by r i+1 /r i is not less than 1.9, wherein, when each of masses of the two or more types of colloidal silicas in terms of SiO 2 solid content is defined as w 1,...,..., w n in order of increasing mean particle diameter, a mass ratio expressed by w i+1 /(w i+1 +w i) is 0.50 to 0.80, where n represents an integer of at least 2, and i represents an integer of 1 to (n-1), and wherein the each of mean particle diameters of the two or more types of colloidal silicas is 1.0 to 150 nm.
An isolated peptide of less than 15 amino acids having cytotoxic T lymphocyte inducibility, wherein said peptide is an immunologically active fragment of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 18 or a modified peptide thereof, and wherein said peptide comprises an amino acid sequence selected from the group consisting of: (a) SEQ ID NO: 2; and (b) SEQ ID NO: 2, in which 1 or 2 amino acids are substituted. (a) SEQ ID NO: 2; and (b) SEQ ID NO: 2, in which 1 or 2 amino acids are substituted.
A method comprising: receiving a query for records in a table having a value in a column of the table that is included in a set of values; iterating through a generated hierarchical superset tree structure for the column, the hierarchical superset tree structure comprising a plurality of nodes arranged in a plurality of levels in order to identify a set of leaf nodes (1120, 1125, 1130, 1135) of the hierarchical superset tree structure based on the set of values, each leaf node (1120, 1125, 1130, 1135) in the hierarchical superset tree structure associated with a different block of records in the column of the table, each leaf node (1120, 1125, 1130, 1135) in the hierarchical superset tree structure storing a minimum value and a maximum value of the values of the block of records associated with the leaf node (1120, 1125, 1130, 1135), each non-leaf node (1110, 1115, 1105) comprising data describing a superset of the values described by the data in child nodes of the non-leaf node (1110, 1115, 1105); processing the query on a set of block of records in the table associated with the set of leaf nodes (1120, 1125, 1130, 1135); and generating results for the query based on the processing. receiving a query for records in a table having a value in a column of the table that is included in a set of values; iterating through a generated hierarchical superset tree structure for the column, the hierarchical superset tree structure comprising a plurality of nodes arranged in a plurality of levels in order to identify a set of leaf nodes (1120, 1125, 1130, 1135) of the hierarchical superset tree structure based on the set of values, each leaf node (1120, 1125, 1130, 1135) in the hierarchical superset tree structure associated with a different block of records in the column of the table, each leaf node (1120, 1125, 1130, 1135) in the hierarchical superset tree structure storing a minimum value and a maximum value of the values of the block of records associated with the leaf node (1120, 1125, 1130, 1135), each non-leaf node (1110, 1115, 1105) comprising data describing a superset of the values described by the data in child nodes of the non-leaf node (1110, 1115, 1105); processing the query on a set of block of records in the table associated with the set of leaf nodes (1120, 1125, 1130, 1135); and generating results for the query based on the processing.
Transmission controller for a motor vehicle, for controlling and/or regulating the operation of an automatic or automated manual transmission of a motor vehicle, wherein the transmission controller performs a change of gear on the basis of state data of the motor vehicle and/or on the basis of a current position and a piece of route or direction information of the vehicle, characterized in that the transmission controller stores the occurrence of a driver intervention necessitating a change of gear together with the current position and with the current route or direction information of the motor vehicle and, in the event of subsequent travel through/on/in the same position and the same route or direction, performs the same change of gear in automated fashion on the basis of the stored data, depending on whether the driver intervention necessitating a change of gear was stored at the current position and with the current route or direction information repeatedly, at different times.
An apparatus comprising: means for selectively setting bits of a multi-bit way prediction mask based on a prediction mask value, the multi-bit way prediction mask associated with an instruction cache including a data array having a plurality of line drivers (140, 142, 144), wherein a value of each bit of the prediction mask value indicates whether a corresponding line driver is to be enabled; and means for providing the multi-bit way prediction mask to the plurality of line drivers of the data array, wherein a subset of line drivers of the plurality of line drivers are enabled responsive to the multi-bit way prediction mask, characterised in that the subset of line drivers including multiple line drivers. means for selectively setting bits of a multi-bit way prediction mask based on a prediction mask value, the multi-bit way prediction mask associated with an instruction cache including a data array having a plurality of line drivers (140, 142, 144), wherein a value of each bit of the prediction mask value indicates whether a corresponding line driver is to be enabled; and means for providing the multi-bit way prediction mask to the plurality of line drivers of the data array, wherein a subset of line drivers of the plurality of line drivers are enabled responsive to the multi-bit way prediction mask, characterised in that the subset of line drivers including multiple line drivers.
Gas hob apparatus with a base body, with at least one magnetically actuatable switch element, with at least one pan support which, in an assembled state, is provided for an arrangement above the at least one switch element and, in an installation position, can be moved in a movement direction, which is aligned at least essentially in parallel to a gravitational direction, relative to the at least one switch element, with at least one magnet, which in the assembled state is coupled to a movement of the at least one pan support relative to the at least one switch element and is provided to actuate the at least one switch element, wherein the base body, by means of which the at least one pan support is supported in an installation position, has a plate-shaped form.