mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment (UE) comprising: identifying a plurality of component carriers configured for the UE, the plurality of component carriers comprising one or more downlink component carriers and two or more uplink component carriers; receiving a configuration of a plurality of timing advance groups comprising at least a first timing advance group including a primary component carrier in the plurality of component carriers and a second timing advance group including only one or more secondary component carriers (630-b, 630-c) in the plurality of component carriers, wherein the secondary component carriers of the second timing advance group are associated with a timing advance group index configured for the UE; determining a reference downlink component carrier for the second timing advance group for completing a random access procedure based at least in part on the timing advance group index, wherein the reference downlink component carrier is determined from a set of activated downlink component carriers; and utilizing the determined reference downlink component carrier for timing adjustment within at least the second timing advance group; further comprising performing multiple random access procedures in parallel with respect to two or more of the multiple timing advance groups. identifying a plurality of component carriers configured for the UE, the plurality of component carriers comprising one or more downlink component carriers and two or more uplink component carriers; receiving a configuration of a plurality of timing advance groups comprising at least a first timing advance group including a primary component carrier in the plurality of component carriers and a second timing advance group including only one or more secondary component carriers (630-b, 630-c) in the plurality of component carriers, wherein the secondary component carriers of the second timing advance group are associated with a timing advance group index configured for the UE; determining a reference downlink component carrier for the second timing advance group for completing a random access procedure based at least in part on the timing advance group index, wherein the reference downlink component carrier is determined from a set of activated downlink component carriers; and utilizing the determined reference downlink component carrier for timing adjustment within at least the second timing advance group; further comprising performing multiple random access procedures in parallel with respect to two or more of the multiple timing advance groups.
A gun stock comprising a hollow body , an insert , a bar ; said hollow body comprising at least one cavity ; a seat formed in said cavity and adapted to receive said insert ; said insert comprising a passage hole for the passage of said bar ; said bar having a first end and a second free end ; said first end being fastened to a gun body of said gun; said free end being threaded and engaging a locking nut ; said stock being characterized in that it comprises a fastener plate arranged between said locking nut and said insert ; said fastener plate having a calibrated hole; said free end of said bar passing through said calibrated hole; said fastener plate being arrangeable in different positions with respect to said insert in order to change the inclination of said stock with respect to the line of sight of the gun.
Method to evaluate the stability of a protein-based formulation comprising a protein, a peptide and/or a protein derivative and a buffer relative to a lubricant of a lubricated container in which said formulation is intended to be stored, comprising : a) Evaluating a decrease over time of interfacial tension between the buffer and the lubricant, b) Evaluating a decrease over time of interfacial tension between the protein-based formulation and the lubricant, c) Identifying at least one component of the protein-based formulation interacting with the lubricant by comparing the decrease evaluated in step b) with the decrease evaluated in step a). a) Evaluating a decrease over time of interfacial tension between the buffer and the lubricant, b) Evaluating a decrease over time of interfacial tension between the protein-based formulation and the lubricant, c) Identifying at least one component of the protein-based formulation interacting with the lubricant by comparing the decrease evaluated in step b) with the decrease evaluated in step a).
A method for feeding back channel status information, comprising: a terminal in long term evolution-advanced, LTE-A, quantizing the channel status information by using a codebook, and feeding back the channel status information through a physical uplink control channel; wherein, code words contained in the used codebook C PUCCH ( r ) with a rank being r are a subset of code words contained in the codebook C PUSCH ( r ) with a rank being r, C PUSCH ( r ) being an overall codebook defined in the LTE-A; wherein, the C PUCCH ( r ) is a single codebook equivalent to dual codebooks for reporting precoding matrix indicator, PMI, information; and the C PUSCH ( r ) is a single codebook equivalent to dual codebooks for reporting PMI information; and the single codebook equivalent to the dual codebooks means that an actually used codebook is an actually defined single codebook, however, 2 pre-coding matrix identifiers are required to determine the code words of a codebook therein for an established r, characterized in that when r =1, all code words of the C PUSCH ( r ) meet the model u i α k u i , the u i is one 4-dimension column vector, i =1,2,3 ... m, m is a positive integer, and k =1,2,3,4, and α k = e jπ (k-1)/2 ; for every u i , the C PUSCH ( r ) contains 4 code words u i u i u i ju i u i − u i u i − ju i corresponding to the α k = e jπ (k-1)/2 in which k =1,2,3,4, then: the code words that form the C PUCCH ( r ) are all or part of code words which are extracted from the C PUSCH ( r ) and meet the model u i α k u i , with the corresponding α k being {1,-1}; or, the code words that form the C PUCCH ( r ) are all or part of code words which are extracted from the C PUSCH ( r ) and meet model u i α k u i , with the corresponding α k being { j ,- j }; or, half of the code words that form the C PUCCH ( r ) are part of code words which are extracted from the C PUSCH ( r ) and meet the model u i α k u i , with the corresponding α k being {1,-1}, and another half of the code words are part of code words which are extracted from the C PUSCH ( r ) and meet the model u i α k u i , with the corresponding α k being { j ,- j }; or, 1/4 of the code words that form the C PUCCH ( r ) are part of code words which are extracted from the C PUSCH ( r ) and meet the model u i α k u i , with the corresponding α k being 1, 1/4 of the code words are part of code words which are extracted from the C PUSCH ( r ) and meet the model u i α k u i , with the corresponding α k being -1, 1/4 of the code words are part of code words which are extracted from the C PUSCH ( r ) and meet the model u i α k u i , with the corresponding α k being j, and 1/4 of the code words are part of code words which are extracted from the C PUSCH ( r ) and meet the model u i α k u i , with the corresponding α k being -j.
A method of making a three-dimensional printed article comprising: iteratively applying individual powder bed material layers of polymer particles to a powder bed; based on a three-dimensional object model, selectively applying a fusing agent onto the individual powder bed material layers at build areas where the three-dimensional printed article is being formed, wherein the fusing agent comprises water and a radiation absorber; based on the three-dimensional object model, selectively applying a detailing agent onto individual powder bed material layers laterally at a border region between a first area where the powder bed material is contacted by the fusing agent and a second area where the powder bed material is not contacted by the fusing agent, wherein the detailing agent comprises an aqueous liquid vehicle and a polyelectrolyte; and exposing the powder bed to energy to selectively fuse the polymer particles in contact with the radiation absorber to form a fused polymer matrix at individual powder bed material layers while at the same time retaining water associated with the polyelectrolyte at the border at a water to polyelectrolyte weight ratio from about 2:1 to about 1,000:1. iteratively applying individual powder bed material layers of polymer particles to a powder bed; based on a three-dimensional object model, selectively applying a fusing agent onto the individual powder bed material layers at build areas where the three-dimensional printed article is being formed, wherein the fusing agent comprises water and a radiation absorber; based on the three-dimensional object model, selectively applying a detailing agent onto individual powder bed material layers laterally at a border region between a first area where the powder bed material is contacted by the fusing agent and a second area where the powder bed material is not contacted by the fusing agent, wherein the detailing agent comprises an aqueous liquid vehicle and a polyelectrolyte; and exposing the powder bed to energy to selectively fuse the polymer particles in contact with the radiation absorber to form a fused polymer matrix at individual powder bed material layers while at the same time retaining water associated with the polyelectrolyte at the border at a water to polyelectrolyte weight ratio from about 2:1 to about 1,000:1.
A composition for use in reducing a symptom of gliadin peptide toxicity in a subject having a gluten-related disorder, the composition comprising a fermented food product, wherein the food product is a dairy product or a cereal product, wherein the fermented food product has been fermented by probiotic bacterium Lactobacillus paracasei CBA L74, International Depository Accession Number LMG P-24778, and the fermented food product reduces a symptom of gliadin peptide toxicity in a subject having a gluten-related disorder by providing an increased barrier to translocation of a gliadin peptide across an intestinal mucosa of the subject.
A sole for an article of footwear, the sole comprising: a first continuous dispensed component forming a first layer and a second layer ; wherein the first layer is disposed directly on top of the second layer , wherein the first continuous dispensed component forms a perimeter of the sole, the perimeter of the sole forming a medial sidewall and a lateral sidewall , wherein the first layer comprises a starting point where the first continuous dispensed component is first dispensed, wherein the first layer is a top layer of both the medial sidewall and the lateral sidewall and extends entirely around the perimeter of the sole, and wherein the first continuous dispensed component continuously transitions from the first layer to the second layer at the starting point; a second dispensed component disposed within the perimeter of the sole and following along the entire interior side of the first continuous dispensed component ; and a third dispensed component disposed within the second dispensed component and in a forefoot of the sole . a first continuous dispensed component forming a first layer and a second layer ; wherein the first layer is disposed directly on top of the second layer , wherein the first continuous dispensed component forms a perimeter of the sole, the perimeter of the sole forming a medial sidewall and a lateral sidewall , wherein the first layer comprises a starting point where the first continuous dispensed component is first dispensed, wherein the first layer is a top layer of both the medial sidewall and the lateral sidewall and extends entirely around the perimeter of the sole, and wherein the first continuous dispensed component continuously transitions from the first layer to the second layer at the starting point; a second dispensed component disposed within the perimeter of the sole and following along the entire interior side of the first continuous dispensed component ; and a third dispensed component disposed within the second dispensed component and in a forefoot of the sole .
A mattress state indicator comprising: a housing ; a display supported by the housing and configured to provide an operation state of a mattress, wherein the display includes a multitude of visual indicia that can be lit in sequence thereby giving an appearance of a rotating fan to a caregiver; and a connection feature engaged with the housing , the connection feature configured to couple to a magnet disposed within the housing to connect the housing with a bed to provide the caregiver a visual indication of the operation state of the mattress. a housing ; a display supported by the housing and configured to provide an operation state of a mattress, wherein the display includes a multitude of visual indicia that can be lit in sequence thereby giving an appearance of a rotating fan to a caregiver; and a connection feature engaged with the housing , the connection feature configured to couple to a magnet disposed within the housing to connect the housing with a bed to provide the caregiver a visual indication of the operation state of the mattress.
A system in a vehicle configured to control the temperature of a temperature controlled vehicle compartment wherein the temperature controlled vehicle compartment is a trunk and/or a frunk compartment of the vehicle , the system comprising: at least a first camera configured to obtain images; the temperature controlled vehicle compartment configured to be cooled and/or heated; and a processing circuitry operatively connected to the at least a first camera and the temperature controlled vehicle compartment , configured to cause the system to: obtain, by the at least first camera , at least a first image data (im1,im2,im3) of the interior of the temperature controlled vehicle compartment and/or the surroundings of the vehicle ; detect at least a first attribute of at least a first object in the at least first image data (im1,im2,im3) by object recognition processing of the at least first image data (im1,im2,im3); determine if cooling or heating of the temperature controlled vehicle compartment is to be activated based on the at least first attribute of the at least first object ; and activate any of cooling or heating of the temperature controlled vehicle compartment based on the at least first attribute of the at least first object . at least a first camera configured to obtain images; the temperature controlled vehicle compartment configured to be cooled and/or heated; and a processing circuitry operatively connected to the at least a first camera and the temperature controlled vehicle compartment , configured to cause the system to: obtain, by the at least first camera , at least a first image data (im1,im2,im3) of the interior of the temperature controlled vehicle compartment and/or the surroundings of the vehicle ; detect at least a first attribute of at least a first object in the at least first image data (im1,im2,im3) by object recognition processing of the at least first image data (im1,im2,im3); determine if cooling or heating of the temperature controlled vehicle compartment is to be activated based on the at least first attribute of the at least first object ; and activate any of cooling or heating of the temperature controlled vehicle compartment based on the at least first attribute of the at least first object . obtain, by the at least first camera , at least a first image data (im1,im2,im3) of the interior of the temperature controlled vehicle compartment and/or the surroundings of the vehicle ; detect at least a first attribute of at least a first object in the at least first image data (im1,im2,im3) by object recognition processing of the at least first image data (im1,im2,im3); determine if cooling or heating of the temperature controlled vehicle compartment is to be activated based on the at least first attribute of the at least first object ; and activate any of cooling or heating of the temperature controlled vehicle compartment based on the at least first attribute of the at least first object .
A blood pressure measuring method comprising: calculating, by a controller , a pulse transit time, PTT, using a photo-plethysmograph, PPG, signal and an electrocardiogram, ECG, signal measured by a sensor ; calculating, by the controller , an arterial stiffness index, ASI; and calculating, by the controller , systolic blood pressure and diastolic blood pressure using the PTT and the ASI, wherein th ASI is calculated in each of at least two or more postures with different hand shapes by measuring, by the sensor , reference pressure applied to a wrist and fluctuation pressure according to cardiac impulse under the reference pressure with respect to each hand shape, obtaining, by the controller , a graph satisfying values corresponding to the reference pressure and the fluctuation pressure, and calculating, by the controller , a slope through two respectively consecutive points on the graph for which the reference pressure and the fluctuation pressure have been measured. calculating, by a controller , a pulse transit time, PTT, using a photo-plethysmograph, PPG, signal and an electrocardiogram, ECG, signal measured by a sensor ; calculating, by the controller , an arterial stiffness index, ASI; and calculating, by the controller , systolic blood pressure and diastolic blood pressure using the PTT and the ASI, wherein th ASI is calculated in each of at least two or more postures with different hand shapes by measuring, by the sensor , reference pressure applied to a wrist and fluctuation pressure according to cardiac impulse under the reference pressure with respect to each hand shape, obtaining, by the controller , a graph satisfying values corresponding to the reference pressure and the fluctuation pressure, and calculating, by the controller , a slope through two respectively consecutive points on the graph for which the reference pressure and the fluctuation pressure have been measured.
Method for analysing a signal, in which - a spectrum of the signal to be analysed is provided, which is the result of a multiplication of the signal to be analysed by a predefined window function and subsequent, in particular discrete or fast, Fourier transformation, characterized in that - in the spectrum in the region of at least one peak-shaped local maximum, the highest spectral line (S 1 )in terms of its amplitude and the second-highest spectral line (S 2 ) in terms of its amplitude that is directly adjacent thereto are determined for the local maximum, - the amplitude (A 1 ) of the highest spectral line and the amplitude (A 2 ) of the second-highest spectral line directly adjacent thereto are determined, - at least one value dependent on the amplitude (A 1 ) of the highest spectral line (S 1 )and the amplitude (A 2 ) of the second-highest spectral line (S 2 ), in particular the ratio of the amplitude (A 1 ) of the highest spectral line to the amplitude (A 2 ) of the second-highest spectral line and/or the ratio of the amplitude (A 1 ) of the highest spectral line to the average value (Avg 12 ) of the amplitudes (A 1 , A 2 ) of the highest and second-highest spectral lines, is determined, - a frequency correction value for the frequency of the highest spectral line (S 1 )is determined from the determined value, in particular ratio, using a frequency correction characteristic curve which was created for the predefined window function, and - the frequency of the highest spectral line (S 1 )is corrected by the frequency correction value. - a spectrum of the signal to be analysed is provided, which is the result of a multiplication of the signal to be analysed by a predefined window function and subsequent, in particular discrete or fast, Fourier transformation, characterized in that - in the spectrum in the region of at least one peak-shaped local maximum, the highest spectral line (S 1 )in terms of its amplitude and the second-highest spectral line (S 2 ) in terms of its amplitude that is directly adjacent thereto are determined for the local maximum, - the amplitude (A 1 ) of the highest spectral line and the amplitude (A 2 ) of the second-highest spectral line directly adjacent thereto are determined, - at least one value dependent on the amplitude (A 1 ) of the highest spectral line (S 1 )and the amplitude (A 2 ) of the second-highest spectral line (S 2 ), in particular the ratio of the amplitude (A 1 ) of the highest spectral line to the amplitude (A 2 ) of the second-highest spectral line and/or the ratio of the amplitude (A 1 ) of the highest spectral line to the average value (Avg 12 ) of the amplitudes (A 1 , A 2 ) of the highest and second-highest spectral lines, is determined, - a frequency correction value for the frequency of the highest spectral line (S 1 )is determined from the determined value, in particular ratio, using a frequency correction characteristic curve which was created for the predefined window function, and - the frequency of the highest spectral line (S 1 )is corrected by the frequency correction value.
A train comprising: a wheel ; a rotator disposed to face the wheel without contact and including a permanent magnet that rotates around a rotation axis by Lorentz force generated according to a rotation direction of the wheel ; and a power generating unit for converting kinetic energy produced by rotation of the rotator into electric energy. a wheel ; a rotator disposed to face the wheel without contact and including a permanent magnet that rotates around a rotation axis by Lorentz force generated according to a rotation direction of the wheel ; and a power generating unit for converting kinetic energy produced by rotation of the rotator into electric energy.
A method of diagnosing MSI status of a tumor, comprising determining the presence of an indel in at least two homopolymer regions in a sample of the tumor DNA, wherein the at least two homopolymer regions are - at least two homopolymer regions present in 5' UTR or 3' UTR regions from the genes listed in Table 1, or - at least three homopolymer regions selected from those present in the exons of the genes listed in Table 2 and/or present in 5' UTR or 3' UTR regions from the genes listed in Table 1, wherein said homopolymer regions are microsatellite regions that are mononucleotide repeats of at least 6 nucleotides and not exceeding 20 nucleotides, and wherein the presence of an indel in 2% or more of the homopolymer regions is indicative of MSI. - at least two homopolymer regions present in 5' UTR or 3' UTR regions from the genes listed in Table 1, or - at least three homopolymer regions selected from those present in the exons of the genes listed in Table 2 and/or present in 5' UTR or 3' UTR regions from the genes listed in Table 1,