mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the presence of Macrophomina phaseolina (M. phaseolina), possibly in the form of a microsclerotium, and/or for detecting the presence of the DNA thereof in a biological sample, comprising the steps of: (i) Obtaining a biological sample suspected for the presence of M .phaseolina, possibly in the form of a microsclerotium, preferably a biological sample suspected for the presence of DNA of M. phaseolina; (ii) Amplifying, with at least one pair of oligonucleotides (primers) at least one region of ribosomal DNA (rDNA) of M. phaseolina, said region being SEQ ID NO:3; and (iii) Detecting the amplified sequence, if present, by means of an analytical method wherein the presence of said amplified sequence signifies the positivity of the sample for the presence of M. phaseolina, preferably for the DNA of M. phaseolina, i.e. that the sample which underwent the method is M .phaseolina-positive. (i) Obtaining a biological sample suspected for the presence of M .phaseolina, possibly in the form of a microsclerotium, preferably a biological sample suspected for the presence of DNA of M. phaseolina; (ii) Amplifying, with at least one pair of oligonucleotides (primers) at least one region of ribosomal DNA (rDNA) of M. phaseolina, said region being SEQ ID NO:3; and (iii) Detecting the amplified sequence, if present, by means of an analytical method wherein the presence of said amplified sequence signifies the positivity of the sample for the presence of M. phaseolina, preferably for the DNA of M. phaseolina, i.e. that the sample which underwent the method is M .phaseolina-positive.
A method of wireless communication, comprising: receiving a plurality of encoded sub-blocks associated with a data transport block, the plurality of encoded sub-blocks comprising at least a first encoded sub-block and a second encoded sub-block, a size of the first encoded sub-block being different than a size of the second encoded sub-block, wherein: the size of the first encoded sub-block is smaller than the size of the second encoded sub-block; and a code rate of the first encoded sub-block is lower than a code rate of the second encoded sub-block; decoding at least the first and second encoded sub-blocks, wherein the decoding at least the first and second encoded sub-blocks comprises: determining whether the size of the first encoded sub-block is smaller than the size of the second encoded sub-block; and decoding the first encoded sub-block prior to the second encoded sub-block when the size of the first encoded sub-block is determined to be smaller than the size of the second encoded sub-block; and performing data-aided channel estimation for one or more of the plurality of encoded sub-blocks based on the decoding of the first encoded sub-block. receiving a plurality of encoded sub-blocks associated with a data transport block, the plurality of encoded sub-blocks comprising at least a first encoded sub-block and a second encoded sub-block, a size of the first encoded sub-block being different than a size of the second encoded sub-block, wherein: the size of the first encoded sub-block is smaller than the size of the second encoded sub-block; and a code rate of the first encoded sub-block is lower than a code rate of the second encoded sub-block; the size of the first encoded sub-block is smaller than the size of the second encoded sub-block; and a code rate of the first encoded sub-block is lower than a code rate of the second encoded sub-block; decoding at least the first and second encoded sub-blocks, wherein the decoding at least the first and second encoded sub-blocks comprises: determining whether the size of the first encoded sub-block is smaller than the size of the second encoded sub-block; and decoding the first encoded sub-block prior to the second encoded sub-block when the size of the first encoded sub-block is determined to be smaller than the size of the second encoded sub-block; and determining whether the size of the first encoded sub-block is smaller than the size of the second encoded sub-block; and decoding the first encoded sub-block prior to the second encoded sub-block when the size of the first encoded sub-block is determined to be smaller than the size of the second encoded sub-block; and performing data-aided channel estimation for one or more of the plurality of encoded sub-blocks based on the decoding of the first encoded sub-block.
Vehicle with at least one air inlet opening for admitting ambient air (U), at least one air outlet opening for discharging the ambient air (U), and an air-cooled cooling device connected to the air inlet opening and the air outlet opening for cooling one or more vehicle components , wherein the air outlet opening is equipped with at least one guide device , which can be adjusted and is driven automatically or by an adjustment device on the air outlet side characterised in that the guide device is pivoted into a forward travel position when the vehicle is traveling in a direction of forward travel (VFR) and into a reverse travel position, which differs from the forward travel position, when the vehicle is traveling in a direction of reverse travel(RFR).
A collapsible canopy, comprising: A. at least three supporting legs , B. a plurality of outer retractable units , each outer retractable unit connected between two of said at least three supporting legs , C. a plurality of inner retractable units comprising inner ends, each inner retractable unit connected to one of said at least three supporting legs , wherein said outer retractable units and said inner retractable units form a roof frame of said collapsible canopy, D. a central lock for locking said collapsible canopy in an unfolded state when said central lock is locked and for permitting said collapsible canopy to be folded into a folded state when said central lock is unlocked, wherein said inner ends of said inner retractable units are connected to said central lock, and E. a plurality of reinforcement bars , wherein each reinforcement bar is respectively pivotally connected between one of said outer retractable units and one of said inner retractable units , wherein said plurality of reinforcement bars function to maintain the shape of said collapsible canopy when said collapsible canopy is in a locked and unfolded position, characterized in that , each inner retractable unit of said plurality of inner retractable units comprises at least one first oblique top pipe pivotally connected to said central lock, and wherein each outer retractable unit of said plurality of outer retractable units comprises at least one eave pipe, wherein each of said plurality of reinforcement bars is pivotally connected between said at least one first oblique top pipe and said at least one eave pipe. A. at least three supporting legs , B. a plurality of outer retractable units , each outer retractable unit connected between two of said at least three supporting legs , C. a plurality of inner retractable units comprising inner ends, each inner retractable unit connected to one of said at least three supporting legs , wherein said outer retractable units and said inner retractable units form a roof frame of said collapsible canopy, D. a central lock for locking said collapsible canopy in an unfolded state when said central lock is locked and for permitting said collapsible canopy to be folded into a folded state when said central lock is unlocked, wherein said inner ends of said inner retractable units are connected to said central lock, and E. a plurality of reinforcement bars , wherein each reinforcement bar is respectively pivotally connected between one of said outer retractable units and one of said inner retractable units , wherein said plurality of reinforcement bars function to maintain the shape of said collapsible canopy when said collapsible canopy is in a locked and unfolded position, characterized in that , each inner retractable unit of said plurality of inner retractable units comprises at least one first oblique top pipe pivotally connected to said central lock, and wherein each outer retractable unit of said plurality of outer retractable units comprises at least one eave pipe, wherein each of said plurality of reinforcement bars is pivotally connected between said at least one first oblique top pipe and said at least one eave pipe.
A population of cells enriched for non-hematopoietic STRO-1 + multipotential cells for use in a method of therapeutic weight reduction of a subject or therapeutic treatment or prevention of excessive weight or obesity in a subject, said method comprising administering to the subject the population of cells, wherein the population of cells comprises at least 1% non-hematopoietic STRO-1 + multipotential cells.
A pressure monitoring system comprising: a channel ; a flexible tube disposed in the channel, the flexible tube being expandable due to pressure; a pressure sensor disposed in communication with the tube; a projection disposed in contact with the channel and in contact with the tube to hold the tube in the channel , wherein the projection has a channel contacting surface which contacts the channel to prevent movement of the projection towards the channel ; and a pump comprising the channel , wherein the channel is a pressure monitoring channel and wherein the pressure sensor is disposed in communication with the tube to monitor the pressure in the tube ; characterised in that the pressure monitoring system further comprises a pump door ; the projection is formed as part of the pump door ; the projection is disposed on the inside of the pump door , the projection engaging the tube and the pressure monitoring channel when the pump door is closed, the projection is an interference fit between the pump door and the channel , causing the pump door to bend when the pump door is closed, wherein closing the door causes a portion of the door adjacent the projection to bend outwardly and thereby bias the projection towards the pressure monitoring channel. a channel ; a flexible tube disposed in the channel, the flexible tube being expandable due to pressure; a pressure sensor disposed in communication with the tube; a projection disposed in contact with the channel and in contact with the tube to hold the tube in the channel , wherein the projection has a channel contacting surface which contacts the channel to prevent movement of the projection towards the channel ; and a pump comprising the channel , wherein the channel is a pressure monitoring channel and wherein the pressure sensor is disposed in communication with the tube to monitor the pressure in the tube ; characterised in that the pressure monitoring system further comprises a pump door ; the projection is formed as part of the pump door ; the projection is disposed on the inside of the pump door , the projection engaging the tube and the pressure monitoring channel when the pump door is closed, the projection is an interference fit between the pump door and the channel , causing the pump door to bend when the pump door is closed, wherein closing the door causes a portion of the door adjacent the projection to bend outwardly and thereby bias the projection towards the pressure monitoring channel.
Method for starting up an illuminating process of a plurality of series connected LEDs by means of a LED driver, wherein a maximum allowed voltage output of the LED driver is lower than a forward voltage of the plurality of series connected LEDs in a cold state at a desired current and wherein the maximum allowed voltage output of the LED driver corresponds to a maximum allowed voltage imposed by a safety standard, comprising: a) providing a first current, in value lower than the desired current, by the LED driver to the plurality of series connected LEDs, resulting in a forward voltage across the plurality of series connected LEDs lower than the maximum allowed voltage output of the LED driver, b) waiting during a predetermined wait time period, c) stepping up of the first current to a second current provided by the LED driver to the plurality of series connected LEDs. a) providing a first current, in value lower than the desired current, by the LED driver to the plurality of series connected LEDs, resulting in a forward voltage across the plurality of series connected LEDs lower than the maximum allowed voltage output of the LED driver, b) waiting during a predetermined wait time period, c) stepping up of the first current to a second current provided by the LED driver to the plurality of series connected LEDs.
A frequency selective circuit, wherein the frequency selective circuit comprises: a first transistor (M 1 ) comprising a drain terminal, a source terminal connected to ground and a gate terminal; an impedance element (R1+L1) coupled between the drain terminal and the gate terminal of the first transistor (M 1 ); a first capacitive element (C 1 ) coupled between the drain terminal of the first transistor (M 1 ) and ground; a second capacitive element (C 2 ) coupled between the gate terminal of the first transistor (M 1 ) and ground; and a second transistor (M 2 ) comprising a drain terminal, a source terminal connected to ground and a gate terminal, the gate terminal of the second transistor (M 2 ) being coupled to the gate terminal of the first transistor (M 1 ); characterized in that the impedance element (R1+L1) includes a resistor (R 1 ) and an inductor (L 1 ) in series. a first transistor (M 1 ) comprising a drain terminal, a source terminal connected to ground and a gate terminal; an impedance element (R1+L1) coupled between the drain terminal and the gate terminal of the first transistor (M 1 ); a first capacitive element (C 1 ) coupled between the drain terminal of the first transistor (M 1 ) and ground; a second capacitive element (C 2 ) coupled between the gate terminal of the first transistor (M 1 ) and ground; and a second transistor (M 2 ) comprising a drain terminal, a source terminal connected to ground and a gate terminal, the gate terminal of the second transistor (M 2 ) being coupled to the gate terminal of the first transistor (M 1 ); characterized in that the impedance element (R1+L1) includes a resistor (R 1 ) and an inductor (L 1 ) in series.
A method for receiving a random access channel, RACH, by a base station, BS, in a wireless communication system, the method comprising: transmitting information related to actually transmitted synchronization signal blocks, SSBs, and RACH configuration information related to RACH resources for receiving a RACH preamble; and receiving the RACH preamble in a RACH resource among the RACH resources based on the information related to actually transmitted SSBs and the RACH configuration information, wherein the actually transmitted SSBs are mapped repeatedly by a positive integer number to the RACH resources within a RACH configuration window based on a mapping pattern related to actually transmitted SSBs and RACH resources, and wherein at least one remaining RACH resource within the RACH configuration window which is not mapped to the actually transmitted SSBs is not used for RACH transmission. transmitting information related to actually transmitted synchronization signal blocks, SSBs, and RACH configuration information related to RACH resources for receiving a RACH preamble; and receiving the RACH preamble in a RACH resource among the RACH resources based on the information related to actually transmitted SSBs and the RACH configuration information, wherein the actually transmitted SSBs are mapped repeatedly by a positive integer number to the RACH resources within a RACH configuration window based on a mapping pattern related to actually transmitted SSBs and RACH resources, and wherein at least one remaining RACH resource within the RACH configuration window which is not mapped to the actually transmitted SSBs is not used for RACH transmission.
An apparatus for preserving, transporting and distributing refrigerated or frozen products , particularly for thermally insulated compartments of refrigeration vehicles, refrigeration chambers or the like, comprising one or more heat accumulation elements , each comprising an enclosure that delimits a cavity adapted to contain a heat accumulation liquid, said cavity accommodating a heat exchanger that can be supplied with a heat exchange fluid, ventilation means being associated with said one or more heat accumulation elements , characterized in that said enclosure has a first wall that has a flat surface and a second wall , arranged opposite said first wall , that has an at least partially ribbed surface, said heat exchanger having a U-shaped double tubular profile , the inner surface of which, in contact with said heat exchange fluid, comprises a plurality of ribs, the U-shaped double tubular profile comprising a flat structure , which connects, also thermally, the two portions, ascending and descending, of the tubular elements that define the U-shaped double tubular profile , said flat structure having ends that are adapted to be inserted into guides that are provided in the inner surface of the enclosure , for the installation of the heat exchanger inside the enclosure of the heat accumulation element .
Installation (INST) automatically controlling comfort and/or security in a building comprising at least one electrical device of the building of electric actuator type driving a movable closing or sun-protection element or of electric actuator type for controlling a lighting, heating or ventilation device, a central control unit intended to automatically transmit messages to the at least one electrical device via a first unidirectional wired communication medium (IB), the installation further comprising: - a multichannel control element intended to automatically transmit messages to the at least one electrical device via a second unidirectional wired communication medium (RTS); - at least one analysis device , the central control unit and the at least one electrical device forming a first network (NTW1), the multichannel control element and the at least one electrical device forming a second network (NTW2), the multichannel control element being distinct from the central control unit , the analysis device comprising: - a receiver element capable of receiving messages passing over the second communication medium (RTS) destined for the at least one electrical device ; and - a transmitter element capable of transmitting, to the multichannel control element , information relating to the reception, by the analysis device , of the messages destined for the at least one electrical device . - a multichannel control element intended to automatically transmit messages to the at least one electrical device via a second unidirectional wired communication medium (RTS); - at least one analysis device , - a receiver element capable of receiving messages passing over the second communication medium (RTS) destined for the at least one electrical device ; and - a transmitter element capable of transmitting, to the multichannel control element , information relating to the reception, by the analysis device , of the messages destined for the at least one electrical device .
An article having at least one colored luminous region, in particular for display, said article comprising at least one glass-ceramic substrate having a luminous transmission ranging from 0.8% to 40% and an optical transmission of at least 0.1% for at least one wavelength in the range extending from 420 to 780 nm, at least one light source, and at least one color optical filter obtained by inkjet printing and having a thickness comprised between 5 and 50 μm, this filter presenting a luminous transmission of at least 5%, so as to form at least one colored luminous region, in particular for display, in at least one region of the glass-ceramic substrate.
A graphics processor comprising: a fetch and decode unit including an instruction fetcher to fetch a hardware macro instruction and an instruction decoder to decode the hardware macro instruction, wherein the hardware macro instruction includes a set of initial operands and to decode the hardware macro instruction includes to generate a set of hardware instructions including multiple dot product instructions, the multiple dot product instructions to be executed on input associated with a first matrix and a second matrix, the input identified at least in part based on the initial set of operands; and a matrix accelerator including a processing resource to execute the set of hardware instructions, wherein the hardware macro instruction additionally includes a predicate mask and a repeat count , the set of hardware instructions generated based on the predicate mask and the repeat count, wherein the repeat count is to indicate a maximum number of hardware instructions to generate for the set of hardware instructions, and wherein the instruction decoder comprises a priority encoder to scan the predicate mask to find a first activated bit in the predicate mask, the first activated bit indicating a first dot product instruction of the multiple dot product instructions to be generated. a fetch and decode unit including an instruction fetcher to fetch a hardware macro instruction and an instruction decoder to decode the hardware macro instruction, wherein the hardware macro instruction includes a set of initial operands and to decode the hardware macro instruction includes to generate a set of hardware instructions including multiple dot product instructions, the multiple dot product instructions to be executed on input associated with a first matrix and a second matrix, the input identified at least in part based on the initial set of operands; and a matrix accelerator including a processing resource to execute the set of hardware instructions, wherein the hardware macro instruction additionally includes a predicate mask and a repeat count , the set of hardware instructions generated based on the predicate mask and the repeat count, wherein the repeat count is to indicate a maximum number of hardware instructions to generate for the set of hardware instructions, and wherein the instruction decoder comprises a priority encoder to scan the predicate mask to find a first activated bit in the predicate mask, the first activated bit indicating a first dot product instruction of the multiple dot product instructions to be generated.