mhurhangee/ep-ind-claims huggingface dataset:
A circuit card assembly comprising: a first printed circuit board; at least one electronic component mounted on said first printed circuit board at a predetermined location; a frame coupled to said first printed circuit board; and a heat transfer assembly coupled to said frame, wherein said heat transfer assembly comprises: a first plate extending over at least a portion of said first printed circuit board; a heat pipe coupled to said first plate; and a thermally conductive member positioned between said at least one electronic component and said heat pipe, wherein said thermally conductive member is selectively mounted at predetermined locations along said first plate based on the predetermined location of said at least one electronic component, wherein said heat pipe is partially embedded within said first plate thereby defining an exposed surface of said heat pipe, wherein said exposed surface is coupled to said thermally conductive member. a first printed circuit board; at least one electronic component mounted on said first printed circuit board at a predetermined location; a frame coupled to said first printed circuit board; and a heat transfer assembly coupled to said frame, wherein said heat transfer assembly comprises: a first plate extending over at least a portion of said first printed circuit board; a heat pipe coupled to said first plate; and a thermally conductive member positioned between said at least one electronic component and said heat pipe, wherein said thermally conductive member is selectively mounted at predetermined locations along said first plate based on the predetermined location of said at least one electronic component, wherein said heat pipe is partially embedded within said first plate thereby defining an exposed surface of said heat pipe, wherein said exposed surface is coupled to said thermally conductive member. a first plate extending over at least a portion of said first printed circuit board; a heat pipe coupled to said first plate; and a thermally conductive member positioned between said at least one electronic component and said heat pipe, wherein said thermally conductive member is selectively mounted at predetermined locations along said first plate based on the predetermined location of said at least one electronic component, wherein said heat pipe is partially embedded within said first plate thereby defining an exposed surface of said heat pipe, wherein said exposed surface is coupled to said thermally conductive member.
A fault protected aircraft heated floor panel, comprising: upper and lower floor panel skins (16, 20); an electro-resistive heater element interposed between the upper and lower floor panel skins (16, 20); characterized in that a controller for controlling current delivered to the heater element, the controller including a ground fault interrupt circuit that detects a differential current between a power lead and a return lead that deliver the current to the heater element wherein the ground fault interrupt circuit comprises a window comparator circuit (58, 60) for determining whether the differential current is within a window having an upper limit representing the predefined current upper limit, and a lower limit representing a predefined current lower limit; and wherein the controller interrupts the current delivered to the heater element as a result of the ground fault interrupt circuit determining that the differential current is outside the window. upper and lower floor panel skins (16, 20); an electro-resistive heater element interposed between the upper and lower floor panel skins (16, 20); characterized in that a controller for controlling current delivered to the heater element, the controller including a ground fault interrupt circuit that detects a differential current between a power lead and a return lead that deliver the current to the heater element wherein the ground fault interrupt circuit comprises a window comparator circuit (58, 60) for determining whether the differential current is within a window having an upper limit representing the predefined current upper limit, and a lower limit representing a predefined current lower limit; and wherein the controller interrupts the current delivered to the heater element as a result of the ground fault interrupt circuit determining that the differential current is outside the window.
A robot cleaner system comprising: a docking station having a first transmission unit to transmit a first docking guide signal comprising at least a first signal pulse and a second signal pulse; and a robot cleaner including a plurality of reception units (210a - 210d) to sense the signals transmitted by the docking station and a control unit to control a driving unit to move the robot cleaner to the docking station, whereby the robot cleaner is configured for distinguishing the first docking guide signal sensed in a first short-distance docking guide area (L, R) from the first docking guide signal sensed by the robot cleaner in a first long-distance guide area (W1, W2), characterized in that the second signal pulse has an amplitude greater than the amplitude of the first signal pulse, further characterized in that the docking station has a second transmission unit to transmit a second docking guide signal comprising at least a third signal pulse and a fourth signal pulse having an amplitude greater than the amplitude of the third signal pulse of the second docking guide signal, further characterized in that the control unit is able to control the driving unit based on the first docking guide signal and the second docking guide signal sensed by the reception unit and in that the robot cleaner is configured for distinguishing the second docking guide signal sensed in a second short-distance docking guide area (L, R) from the second docking guide signal sensed by the robot cleaner in a second long-distance guide area (W1, W2). a docking station having a first transmission unit to transmit a first docking guide signal comprising at least a first signal pulse and a second signal pulse; and a robot cleaner including a plurality of reception units (210a - 210d) to sense the signals transmitted by the docking station and a control unit to control a driving unit to move the robot cleaner to the docking station, whereby the robot cleaner is configured for distinguishing the first docking guide signal sensed in a first short-distance docking guide area (L, R) from the first docking guide signal sensed by the robot cleaner in a first long-distance guide area (W1, W2), characterized in that the second signal pulse has an amplitude greater than the amplitude of the first signal pulse, further characterized in that the docking station has a second transmission unit to transmit a second docking guide signal comprising at least a third signal pulse and a fourth signal pulse having an amplitude greater than the amplitude of the third signal pulse of the second docking guide signal, further characterized in that the control unit is able to control the driving unit based on the first docking guide signal and the second docking guide signal sensed by the reception unit and in that the robot cleaner is configured for distinguishing the second docking guide signal sensed in a second short-distance docking guide area (L, R) from the second docking guide signal sensed by the robot cleaner in a second long-distance guide area (W1, W2).
Data storage method for temporal control of access to data of a data management system comprising a server (401, 500), the method being executed by the server, the server comprising an indexed list of encryption keys, each index being associated with a unique encryption key, each encryption key being associated with one and the same predefined validity period, an index referred to as the current index being initially predetermined, the method comprising the following steps: - receiving a message comprising data to be stored in the data management system, as well as information concerning a desired retention period for this data, - determining an encryption index, depending on the desired retention period, on the validity period of an encryption key, on the current index and on the size of the indexed list of encryption keys, - encrypting the received data by means of the encryption key associated with the encryption index, - determining, depending on the received data and on the encryption key used for the preceding step of encrypting this data, an authentication code, and - storing said encrypted data in association with the encryption index and the authentication code, the current index being periodically updated, the update period being the same as the validity period of an encryption key, the update comprising: - deleting and replacing the encryption key associated with the current index with a new unique encryption key, - circularly incrementing the current index. - receiving a message comprising data to be stored in the data management system, as well as information concerning a desired retention period for this data, - determining an encryption index, depending on the desired retention period, on the validity period of an encryption key, on the current index and on the size of the indexed list of encryption keys, - encrypting the received data by means of the encryption key associated with the encryption index, - determining, depending on the received data and on the encryption key used for the preceding step of encrypting this data, an authentication code, and - storing said encrypted data in association with the encryption index and the authentication code, - deleting and replacing the encryption key associated with the current index with a new unique encryption key, - circularly incrementing the current index.
Method for preparing siloxanes, in which a compound A is reacted with a compound B or a compound A is reacted with a compound C or a compound B is reacted with a compound C or a compound C is reacted without compound A and B in the presence of a compound D at at least 40°C, wherein compound A is a silane or a siloxane, which comprises at least one hydrogen atom bonded directly to silicon, compound B is a silane or a siloxane, which comprises at least one alkoxy moiety bonded directly to silicon, compound C is a silane or a siloxane, which comprises at least one hydrogen atom bonded directly to silicon and at least one alkoxy moiety bonded directly to silicon and compound D is a cationic Si compound of general formula V ([Si Cp] +) a X a-, in which Cp is a π-bonded cyclopentadienyl radical of general formula VI, which is substituted by radicals R y, R y are monovalent radicals or polyvalent radicals which can also bond to one another to form fused rings and X a- signifies an a valent anion, which does not react with the cationic silicon centre under the reaction conditions, or the compound D is selected from the cationic Si compounds: wherein the radicals R a are each independently hydrocarbon radicals and Hal signifies halogen. Cp is a π-bonded cyclopentadienyl radical of general formula VI, which is substituted by radicals R y, R y are monovalent radicals or polyvalent radicals which can also bond to one another to form fused rings and X a- signifies an a valent anion, which does not react with the cationic silicon centre under the reaction conditions, or the compound D is selected from the cationic Si compounds:
A terminal comprising: a receiver configured to receive downlink control information transmitted from a base station using both a first resource region and a second resource region included in a subframe or using only the second resource region, the first resource region being available for a downlink control channel and a downlink data channel, the second resource region being available for the downlink control channel, wherein the second resource region is located in first Orthogonal Frequency Division Multiplexing, OFDM, symbols of the subframe in a time domain and the first resource region is located in the remaining OFDM symbols of the subframe in the time domain; wherein the receiver is further adapted to receive from the base station in said subframe a Control Format Indicator, CFI, indicating the number of said first OFDM symbols; and a decoder configured to identify whether both the first resource region and the second resource region or only the second resource region is a region for decoding, and to decode the identified first and second resource regions or the identified second resource region to obtain the downlink control information, wherein the decoder is adapted to decode only the second resource region in case the subframe is a special subframe having a gap period for switching between a downlink and an uplink in a time division duplex, TDD. a receiver configured to receive downlink control information transmitted from a base station using both a first resource region and a second resource region included in a subframe or using only the second resource region, the first resource region being available for a downlink control channel and a downlink data channel, the second resource region being available for the downlink control channel, wherein the second resource region is located in first Orthogonal Frequency Division Multiplexing, OFDM, symbols of the subframe in a time domain and the first resource region is located in the remaining OFDM symbols of the subframe in the time domain; wherein the receiver is further adapted to receive from the base station in said subframe a Control Format Indicator, CFI, indicating the number of said first OFDM symbols; and a decoder configured to identify whether both the first resource region and the second resource region or only the second resource region is a region for decoding, and to decode the identified first and second resource regions or the identified second resource region to obtain the downlink control information, wherein the decoder is adapted to decode only the second resource region in case the subframe is a special subframe having a gap period for switching between a downlink and an uplink in a time division duplex, TDD.
A vacuum pump for mounting to a semiconductor processing chamber to evacuate said chamber to pressures between 1 mbar and 5 X10 -2 mbar, said vacuum pump comprising: a rotor rotatably mounted within a stator; said rotor comprising a plurality of angled blades arranged along a helical path from an inlet to an outlet; said stator comprising a plurality of perforated elements arranged to intersect said helical path, said perforations allowing gas molecules travelling along said helical path to pass through said perforated elements; said rotor being mounted on a magnetically levitated bearing; characterised in that said perforated elements located towards the inlet of said vacuum pump comprise a transparency of more than 40% and said perforated elements located towards the outlet of said vacuum pump comprise a transparency of more than 30%, and in that the transparency of said plurality of perforated elements reduces towards said outlet. a rotor rotatably mounted within a stator; said rotor comprising a plurality of angled blades arranged along a helical path from an inlet to an outlet; said stator comprising a plurality of perforated elements arranged to intersect said helical path, said perforations allowing gas molecules travelling along said helical path to pass through said perforated elements; said rotor being mounted on a magnetically levitated bearing; characterised in that said perforated elements located towards the inlet of said vacuum pump comprise a transparency of more than 40% and said perforated elements located towards the outlet of said vacuum pump comprise a transparency of more than 30%, and in that the transparency of said plurality of perforated elements reduces towards said outlet.
An attachment for a vehicle wheel for enabling driving operation with limited tire function, having a base body which in an operating state of the attachment has an annular tread surface, wherein the base body comprises at least a first peripheral segment and a second peripheral segment, wherein the first peripheral segment is configured to be rigid in the peripheral direction and can be fastened to the vehicle wheel, wherein the first peripheral segment further comprises a fastening portion via which it can be fastened in the region of a bolt circle, preferably to the bolt circle, of the vehicle wheel, wherein the attachment comprises a mounting element which is fastened to the attachment, preferably the first peripheral segment, and/or to the vehicle wheel in such a manner, or is configured to be capable of being fastened thereto in such a manner, that it can be transferred into a mounting position or is in the mounting position, wherein the mounting element aligns the second peripheral segment relative to the first peripheral segment and urges it towards the rim of the vehicle wheel when the first peripheral segment is fastened to the vehicle wheel and the mounting element is in the mounting position, and wherein the mounting element comprises a hole pattern which corresponds in any case to a portion of the hole pattern of the bolt circle of the vehicle wheel. wherein the base body comprises at least a first peripheral segment and a second peripheral segment, wherein the first peripheral segment is configured to be rigid in the peripheral direction and can be fastened to the vehicle wheel, wherein the first peripheral segment further comprises a fastening portion via which it can be fastened in the region of a bolt circle, preferably to the bolt circle, of the vehicle wheel, wherein the attachment comprises a mounting element which is fastened to the attachment, preferably the first peripheral segment, and/or to the vehicle wheel in such a manner, or is configured to be capable of being fastened thereto in such a manner, that it can be transferred into a mounting position or is in the mounting position, wherein the mounting element aligns the second peripheral segment relative to the first peripheral segment and urges it towards the rim of the vehicle wheel when the first peripheral segment is fastened to the vehicle wheel and the mounting element is in the mounting position, and wherein the mounting element comprises a hole pattern which corresponds in any case to a portion of the hole pattern of the bolt circle of the vehicle wheel.
An acceleration/deceleration detecting system comprising: an acceleration/deceleration detector configured to be disposed in a measurement object and to detect forward/backward acceleration of the measurement object; an acceleration/deceleration device configured to accelerate or decelerate the measurement object; and a calculation device configured to determine an offset error value or a detection error value of the acceleration/deceleration detector and to set a detection value of the acceleration/deceleration detector as said offset error value or said detection error value of the acceleration/deceleration detector at the time a sign of an actual acceleration value of the measurement object is opposite to a sign of an acceleration value shown by a detection value of the acceleration/deceleration detector at an early stage of an acceleration operation or a deceleration operation executed by the acceleration/deceleration device. an acceleration/deceleration detector configured to be disposed in a measurement object and to detect forward/backward acceleration of the measurement object; an acceleration/deceleration device configured to accelerate or decelerate the measurement object; and a calculation device configured to determine an offset error value or a detection error value of the acceleration/deceleration detector and to set a detection value of the acceleration/deceleration detector as said offset error value or said detection error value of the acceleration/deceleration detector at the time a sign of an actual acceleration value of the measurement object is opposite to a sign of an acceleration value shown by a detection value of the acceleration/deceleration detector at an early stage of an acceleration operation or a deceleration operation executed by the acceleration/deceleration device.
An active decoupling impedance comprising a transformer having a primary winding connectable on an electrical power line between a victim device and an electrical load, and a burden network, characterized in that the burden network is connected to a secondary winding of the transformer, and in that the burden network is arranged to generate a first impedance on the powerline at a power frequency, and a second impedance with an absolute value larger than that of the first impedance in a predetermined band of frequency above the power frequency.
Sheet formulation for oral use, comprising a sheet formulation base and components to below: Scopolamine butylbromide; Sucralose and/or saccharin sodium; and Menthol, wherein the sheet formulation base consists of a cellulose ether polymer and wherein the sheet formulation contains 10-950 of cellulose polymer. Scopolamine butylbromide; Sucralose and/or saccharin sodium; and Menthol,
A pharmaceutical composition comprising at least one TGF-beta2 antisense oligonucleotide hybridising with an area of the messenger RNA (m-RNA) and/or DNA encoding TGF-beta2 selected from the group consisting of SEQ ID NO: 28 to 30, and at least one substance inhibiting cell proliferation and/or inducing cell death, selected from the group of BCNU, CCNU, gemcitabine, temozolomide, and vincristine.
Assembly for a turbomachine through which an air flow passes, comprising a stator comprising guide vanes extending radially in relation to a longitudinal axis, at least one inter-vane platform extending between the radially outer ends of two circumferentially consecutive guide vanes, each inter-vane platform including an outer surface that faces the axis, a heat exchanger located downstream of the stator in relation to the direction of circulation of the air flow, this heat exchanger including a heat exchange surface devoid of any relief and extending in the downstream extension of an inter-vane platform, and wherein at least one inter-vane platform located in the upstream extension of the heat exchange surface of the heat exchanger is provided with at least one turbulence generator on its outer surface.