mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising a die supply device and a holding plate , the die supply device including a holding stage configured to hold one of the holding plate and a die body configured from multiple dies and a pushing tool configured to push from below a given die from the die body held by the holding stage , the die supply device being configured to supply dies in a state raised by the pushing tool ,characterized in that the holding plate comprises a detecting tool for detecting a push amount of the pushing tool .
A polymer scaffold for preventing compression and instability in a segmental bone defect comprising: an outer shell sized to fit over a segmental defect in a bone; said outer shell having a first end , a second end ; an inner surface , an outer surface , a thickness and an internal diameter ; said inner surface defining an inner cavity ; and a collagen containing material located within the inner cavity of said outer shell , characterized in that the outer shell comprises a poly(ester urea) polymer; and, wherein said outer shell has one or more struts running along the inner surface of said outer shell between the first end and second end of said outer shell . an outer shell sized to fit over a segmental defect in a bone; said outer shell having a first end , a second end ; an inner surface , an outer surface , a thickness and an internal diameter ; said inner surface defining an inner cavity ; and a collagen containing material located within the inner cavity of said outer shell , characterized in that the outer shell comprises a poly(ester urea) polymer; and, wherein said outer shell has one or more struts running along the inner surface of said outer shell between the first end and second end of said outer shell .
A manifold assembly for a gas turbine engine, comprising: a fuel manifold ; a sensor ; characterized in that the manifold assembly further comprises: a snubber block being mounted to the fuel manifold ; wherein the snubber block comprises a body with at least one passage with a respective flow restrictive orifice, a male section that extends from the body , wherein the body is operable to receive the sensor, wherein the snubber block is configured to restrict a fuel flow to and from the sensor; wherein the male section is shaped the same as a male end of the sensor, wherein the male section of the snubber block is receivable within the fuel manifold to which the sensor is otherwise received; wherein the sensor is a Fuel Filter Delta Pressure Sensor and is mounted to the snubber block . a fuel manifold ; a sensor ; characterized in that the manifold assembly further comprises: a snubber block being mounted to the fuel manifold ; wherein the snubber block comprises a body with at least one passage with a respective flow restrictive orifice, a male section that extends from the body , wherein the body is operable to receive the sensor, wherein the snubber block is configured to restrict a fuel flow to and from the sensor; wherein the male section is shaped the same as a male end of the sensor, wherein the male section of the snubber block is receivable within the fuel manifold to which the sensor is otherwise received; wherein the sensor is a Fuel Filter Delta Pressure Sensor and is mounted to the snubber block . a snubber block being mounted to the fuel manifold ; wherein the snubber block comprises a body with at least one passage with a respective flow restrictive orifice, a male section that extends from the body , wherein the body is operable to receive the sensor, wherein the snubber block is configured to restrict a fuel flow to and from the sensor; wherein the male section is shaped the same as a male end of the sensor, wherein the male section of the snubber block is receivable within the fuel manifold to which the sensor is otherwise received; wherein the sensor is a Fuel Filter Delta Pressure Sensor and is mounted to the snubber block .
An odor identification device comprising: a sensor array unit including at least two sensors for sensing an odor of an object to be measured; a sensor data processing unit for processing data obtained from the sensor array unit to provide a sensor data pattern; each of the at least two sensors is configured to show a specific reaction with respect to the odor and an arrangement of the at least two sensors can be varied, wherein the odor identification device further comprises a pattern identification unit for identifying the odor of the object to be measured by a collation of the sensor data pattern with odor information of the object to be measured and information of the arrangement of the at least two sensors. a sensor array unit including at least two sensors for sensing an odor of an object to be measured; a sensor data processing unit for processing data obtained from the sensor array unit to provide a sensor data pattern; each of the at least two sensors is configured to show a specific reaction with respect to the odor and an arrangement of the at least two sensors can be varied, wherein the odor identification device further comprises a pattern identification unit for identifying the odor of the object to be measured by a collation of the sensor data pattern with odor information of the object to be measured and information of the arrangement of the at least two sensors.
A computer-readable medium comprising instructions which, when executed by a computer, cause the computer to carry out a method of inserting pilot symbols into Orthogonal Frequency Division Multiplexing, OFDM, frames for an OFDM base station having at least one processing path , the OFDM base station having an adjacent OFDM base station having at least one processing path, the OFDM frames having a time domain and a frequency domain , each OFDM frame comprising a plurality of OFDM symbols in the time domain and a plurality of sub-carriers in the frequency domain, the method comprising the steps of: for each processing path of the OFDM base station, inserting scattered pilot symbols in a scattered pattern spread over the OFDM frame, wherein pilot symbols in the pattern are spaced in the time domain and the frequency domain, wherein the scattered pattern is cyclically offset in frequency and time from an identical scattered pattern of the adjacent OFDM base station.
Bone substitute material for use as bone augmentation material in dental implantology, consisting of a zirconium dioxide ceramic in particle form with a particle size in the range from 0.1 to 6 mm, preferably in the range from 0.2 to 4 mm, preferably with a surface roughened by an etching treatment.
A system for controlling a multi-zone vapor compression system , MZ-VCS, including a compressor connected to a set of heat exchangers for controlling environments in a set of zones , comprising: a controller configured to control a vapor compression cycle of the MZ-VCS using a set of control inputs determined by optimizing a cost function including a set of control parameters, wherein the optimizing is subject to constraints , and wherein the cost function is optimized over a prediction horizon; a memory configured to store an optimization function parameterized by a configuration of the MZ-VCS defining active or inactive modes of each heat exchanger, wherein the optimization function modifies, according to a current configuration , values of the control parameters of the cost function determined for a full configuration that includes all heat exchangers in the active mode; and a processor configured to determine the current configuration of the MZ-VCS and to update the cost function by submitting the current configuration to the optimization function , characterized in that a structure of the control parameters corresponds to a structure of a model of the MZ-VCS , such that there is a correspondence between control parameters and a heat exchanger in the MZ-VCS , and wherein the optimization function preserves the values of the control parameters if the corresponding heat exchanger is in the active mode and modifies the values of block if the corresponding heat exchanger is in the inactive mode. a controller configured to control a vapor compression cycle of the MZ-VCS using a set of control inputs determined by optimizing a cost function including a set of control parameters, wherein the optimizing is subject to constraints , and wherein the cost function is optimized over a prediction horizon; a memory configured to store an optimization function parameterized by a configuration of the MZ-VCS defining active or inactive modes of each heat exchanger, wherein the optimization function modifies, according to a current configuration , values of the control parameters of the cost function determined for a full configuration that includes all heat exchangers in the active mode; and a processor configured to determine the current configuration of the MZ-VCS and to update the cost function by submitting the current configuration to the optimization function , characterized in that a structure of the control parameters corresponds to a structure of a model of the MZ-VCS , such that there is a correspondence between control parameters and a heat exchanger in the MZ-VCS , and wherein the optimization function preserves the values of the control parameters if the corresponding heat exchanger is in the active mode and modifies the values of block if the corresponding heat exchanger is in the inactive mode.
An electronic board comprising: - a planar substrate (SCI) having a first side and a second side, opposite said first side; - at least two magnetic core elements (EM1 T , EM1 B ), called first elements, arranged on said first side of said substrate and each having at least two legs passing through said substrate; and - at least two windings (EP), arranged around at least one leg of each said first magnetic core; characterized in that : - it also comprises a second magnetic core element (EM2) in the form of a plate, arranged on said second side of said substrate and in contact with respective ends of said legs of said or of at least two said first elements; and in that : - the spacing between said first elements is sufficient to prevent any mutual magnetic coupling via said second element; whereby said first elements, said windings and said second element form at least two magnetic circuits that are not mutually coupled. - a planar substrate (SCI) having a first side and a second side, opposite said first side; - at least two magnetic core elements (EM1 T , EM1 B ), called first elements, arranged on said first side of said substrate and each having at least two legs passing through said substrate; and - at least two windings (EP), arranged around at least one leg of each said first magnetic core; - it also comprises a second magnetic core element (EM2) in the form of a plate, arranged on said second side of said substrate and in contact with respective ends of said legs of said or of at least two said first elements; - the spacing between said first elements is sufficient to prevent any mutual magnetic coupling via said second element;
A method for wireless communications in a device having Bluetooth and wireless local area network WLAN capabilities, comprising: determining information regarding an operational status of a WLAN transceiver of the device , the operational status information comprising an indication of a Bluetooth alternate media access control / physical layer AMP link capacity from among no AMP capacity, a low AMP capacity, a medium AMP capacity, a high AMP capacity, and a full AMP capacity; reporting the information to a Bluetooth host of the device through a protocol adaptation layer PAL of the WLAN transceiver; and adjusting operation of the AMP link based at least in part on the indicated AMP link capacity; wherein the operational status information comprises an AMP_Status_Change message sent to the Bluetooth host, wherein the AMP_Status_Change message has a first value, wherein the first value indicates the WLAN transceiver has no AMP capacity and wherein operating the AMP link comprises disconnecting the AMP link; and wherein a first AMP_Status_Change message with the first value is reported based on an impending channel switch for the WLAN transceiver, further comprising: reporting a second AMP_Status_Change message with a second value when the WLAN transceiver switches to a new channel; and establishing an AMP link over the new channel. determining information regarding an operational status of a WLAN transceiver of the device , the operational status information comprising an indication of a Bluetooth alternate media access control / physical layer AMP link capacity from among no AMP capacity, a low AMP capacity, a medium AMP capacity, a high AMP capacity, and a full AMP capacity; reporting the information to a Bluetooth host of the device through a protocol adaptation layer PAL of the WLAN transceiver; and adjusting operation of the AMP link based at least in part on the indicated AMP link capacity; wherein the operational status information comprises an AMP_Status_Change message sent to the Bluetooth host, wherein the AMP_Status_Change message has a first value, wherein the first value indicates the WLAN transceiver has no AMP capacity and wherein operating the AMP link comprises disconnecting the AMP link; and wherein a first AMP_Status_Change message with the first value is reported based on an impending channel switch for the WLAN transceiver, further comprising: reporting a second AMP_Status_Change message with a second value when the WLAN transceiver switches to a new channel; and establishing an AMP link over the new channel.
Method for controlling a radio signal emitted by a connected object to adapt its range according to a service zone, characterized in that the method comprises: - storage by a residential gateway of data (zone) descriptive of a residential environment of the gateway to determine limits of a service zone of the object, - determination by a controller embedded in the gateway of a radio signal level emitted by the object at the limit of the service zone of the object, - commanding (REDUCE_Cde) by the controller of an adaptation of the range of the radio signal emitted by the object so that the emitted radio signal level at the limit of the service zone of the object is below a minimum detection threshold. - storage by a residential gateway of data (zone) descriptive of a residential environment of the gateway to determine limits of a service zone of the object, - determination by a controller embedded in the gateway of a radio signal level emitted by the object at the limit of the service zone of the object, - commanding (REDUCE_Cde) by the controller of an adaptation of the range of the radio signal emitted by the object so that the emitted radio signal level at the limit of the service zone of the object is below a minimum detection threshold.
A blade angle feedback ring assembly for an aircraft propeller rotatable about a longitudinal axis (A) and having an adjustable blade angle, the assembly comprising: a feedback ring for coupling to the propeller to rotate with the propeller and to move along the longitudinal axis (A) with adjustment of the blade angle; and a plurality of rods coupled to the feedback ring and extending along a direction substantially parallel to the longitudinal axis (A), the plurality of rods configured to support the feedback ring for longitudinal sliding movement along the longitudinal axis (A) with adjustment of the blade angle, characterised in that : the assembly comprises at least one shielding element configured to shield the feedback ring from electromagnetism, wherein the at least one shielding element comprises at least one of: the plurality of rods being made from a non-conductive material; the feedback ring being made from a non-conductive material, Mu metal, electrical Z f steel or ferrite ceramics; and a plurality of threaded inserts being made from a non-conductive material, wherein the feedback ring comprises the plurality of threaded inserts spaced around a circumference of the feedback ring and each configured to receive therein a given one of the plurality of rods . a feedback ring for coupling to the propeller to rotate with the propeller and to move along the longitudinal axis (A) with adjustment of the blade angle; and a plurality of rods coupled to the feedback ring and extending along a direction substantially parallel to the longitudinal axis (A), the plurality of rods configured to support the feedback ring for longitudinal sliding movement along the longitudinal axis (A) with adjustment of the blade angle, the plurality of rods being made from a non-conductive material; the feedback ring being made from a non-conductive material, Mu metal, electrical Z f steel or ferrite ceramics; and a plurality of threaded inserts being made from a non-conductive material, wherein the feedback ring comprises the plurality of threaded inserts spaced around a circumference of the feedback ring and each configured to receive therein a given one of the plurality of rods .
A detector for detecting photoluminescence from a sample, said detector comprising: an array of single-photon avalanche diodes configured to receive photoluminescence, at least one single-photon avalanche diode being provided with a first type of linear polarization filter , at least one single-photon avalanche diode being provided with a second type of linear polarization filter and at least one single-photon avalanche diode being provided with no polarization filter , wherein said first type of linear polarization filter has a plane of polarization which is angled with respect to a plane of polarization of said second type of polarization filter .
A device for cooling a glass strand manufactured by drawing, characterized by at least two cooling chambers which are arranged spaced along the glass strand for cooling the glass strand section by section, wherein the cooling chambers are connected with a facility for feeding or removing a gaseous cooling medium (K), wherein the glass strand is passed through each cooling chamber and wherein at the pass-through sites an aperture is provided each, wherein the opening thereof is larger than the cross-section of the glass strand for generating a turbulent flow (S) of the gaseous cooling medium (K) which is formed between the opening and the surface of the glass strand .
Use of one or more carboxylic amino acid compounds of formula (I), and salts thereof: in which: R 1 represents a linear or branched, saturated or unsaturated C 6 to C 30 alkyl chain, said chain also possibly being interrupted with one or more hydrocarbon-based rings, R 2 represents a hydrogen atom or a group -(CHR a -CHR b )-COOR 5 , with R a and R b , which may be identical or different, representing, independently of each other, a hydrogen atom or a methyl group, R 3 represents a hydrogen atom or a group -(CHR a -CHR b )-COOR 6 , with R a and R b , which may be identical or different, representing, independently of each other, a hydrogen atom or a methyl group, R 4 represents a hydrogen atom or a group -(CHR a -CHR b )-COOR 7 , with R a and R b , which may be identical or different, representing, independently of each other, a hydrogen atom or a methyl group, R 5 , R 6 and R 7 , which may be identical or different, represent, independently of each other, a hydrogen atom or a linear or branched, saturated or unsaturated C 1 to C 12 alkyl chain, it being understood that at least one of the radicals R 2 , R 3 or R 4 comprises a carboxylic acid function (-COOH), m represents an integer ranging from 1 to 6, and n represents an integer ranging from 0 to 10, p is equal to 0 or 1 and preferably p is equal to 0, for limiting, or even preventing, the formation and/or agglomeration of gas hydrates. R 1 represents a linear or branched, saturated or unsaturated C 6 to C 30 alkyl chain, said chain also possibly being interrupted with one or more hydrocarbon-based rings, R 2 represents a hydrogen atom or a group -(CHR a -CHR b )-COOR 5 , with R a and R b , which may be identical or different, representing, independently of each other, a hydrogen atom or a methyl group, R 3 represents a hydrogen atom or a group -(CHR a -CHR b )-COOR 6 , with R a and R b , which may be identical or different, representing, independently of each other, a hydrogen atom or a methyl group, R 4 represents a hydrogen atom or a group -(CHR a -CHR b )-COOR 7 , with R a and R b , which may be identical or different, representing, independently of each other, a hydrogen atom or a methyl group, R 5 , R 6 and R 7 , which may be identical or different, represent, independently of each other, a hydrogen atom or a linear or branched, saturated or unsaturated C 1 to C 12 alkyl chain, it being understood that at least one of the radicals R 2 , R 3 or R 4 comprises a carboxylic acid function (-COOH), m represents an integer ranging from 1 to 6, and n represents an integer ranging from 0 to 10, p is equal to 0 or 1 and preferably p is equal to 0, for limiting, or even preventing, the formation and/or agglomeration of gas hydrates.
A method for fast loading a kernel image file, executed by a multi-core processor, wherein the multi-core processor is connected to a nonvolatile storage and a memory, the multi-core processor comprises a first core group and a second core group, the first core group comprises at least one core, the second core group comprises a plurality of cores, wherein the at least one core is a small core and the plurality of cores are large cores, wherein a large core is a core with a relatively high clock speed among all cores in the multi-core processor and a small core is a core with a relatively low clock speed among all the cores in the multi-core processor, and the method comprises: obtaining, by the first core group, a plurality of data blocks in a compressed kernel image file from the nonvolatile storage, wherein the compressed kernel image file comprises a plurality of data blocks obtained after block compression is performed on the kernel image file; checking, by the first core group each time obtaining a data block, the currently obtained current data block, and when it is checked that the data block is correct, putting, by the first core group, the current data block into a decompression queue; and obtaining, by at least two of the plurality of cores in the second core group when there is a data block in the decompression queue, the data block in the decompression queue, and after obtaining a plurality of data blocks, decompressing the plurality of obtained data blocks in parallel into the memory to finally obtain the kernel image file. obtaining, by the first core group, a plurality of data blocks in a compressed kernel image file from the nonvolatile storage, wherein the compressed kernel image file comprises a plurality of data blocks obtained after block compression is performed on the kernel image file; checking, by the first core group each time obtaining a data block, the currently obtained current data block, and when it is checked that the data block is correct, putting, by the first core group, the current data block into a decompression queue; and obtaining, by at least two of the plurality of cores in the second core group when there is a data block in the decompression queue, the data block in the decompression queue, and after obtaining a plurality of data blocks, decompressing the plurality of obtained data blocks in parallel into the memory to finally obtain the kernel image file.