mhurhangee/ep-ind-claims huggingface dataset:
Frame screw comprising a cylinder-shaped unit with a threaded outer casing designed with a through-and-through channel (5; 26) in an axial direction comprising a first section at least partly designed with a cross section D3 in a radial direction suitable for fitting a tool for rotating the cylinder-shaped unit and a flange comprising an inner section where the frame screw comprises a fastening means whereby the fastening means has a head with an outer part arranged to fit into the first section, where the first section has a cross section D3 in a radial direction adjusted to a length L6 in an axial direction and a cross section D4 in a radial direction of the head in such a way that the inner side of the first section limits the possibility of the head to tilt which limits the freedom of motion of an existing central axis of the fastening means in relation to an existing central axis of the cylinder-shaped unit to a motion of a maximally predetermined range at the end surface of the cylinder-shaped unit, characterized in that the fastening means is suitable to fit in the channel (5, 26) and the inner section such that the fastening means can run free in the channel in the axial direction and that the cylinder-shaped unit can be rotated around the fastening means when the fastening means is firmly arranged in an outer unit.
A method of a User Equipment, UE, comprising: maintaining a first timing advance for a cell, wherein the first timing advance is identified by a first identifier; performing a random access procedure in the cell; receiving an initial value of a second timing advance for the cell via a random access response of the random access procedure; receiving a second identifier used to identify the second timing advance; receiving a timing advance command for adjusting a timing advance maintained by the UE, wherein the first timing advance is adjusted when the timing advance command includes the first identifier and the second timing advance is adjusted when the timing advance command includes the second identifier, wherein the UE applies the first timing advance to adjust timing of a first UL transmission associated with the first timing advance; the UE applies the second timing advance to adjust timing of a second UL transmission associated with the second timing advance; and the first timing advance is used for at least a first network node of the cell, and the second timing advance is used for at least a second network node of the cell. maintaining a first timing advance for a cell, wherein the first timing advance is identified by a first identifier; performing a random access procedure in the cell; receiving an initial value of a second timing advance for the cell via a random access response of the random access procedure; receiving a second identifier used to identify the second timing advance; receiving a timing advance command for adjusting a timing advance maintained by the UE, wherein the first timing advance is adjusted when the timing advance command includes the first identifier and the second timing advance is adjusted when the timing advance command includes the second identifier, receiving a second identifier used to identify the second timing advance; receiving a timing advance command for adjusting a timing advance maintained by the UE, wherein the first timing advance is adjusted when the timing advance command includes the first identifier and the second timing advance is adjusted when the timing advance command includes the second identifier, wherein the UE applies the first timing advance to adjust timing of a first UL transmission associated with the first timing advance; the UE applies the second timing advance to adjust timing of a second UL transmission associated with the second timing advance; and the first timing advance is used for at least a first network node of the cell, and the second timing advance is used for at least a second network node of the cell.
A computer-implemented method, comprising: initiating an Internet connection sharing between a first computing device and a second computing device, wherein the Internet connection sharing enables the first computing device to function as a host to provide Internet access to the second computing device; determining, at the first computing device, if the Internet connection sharing is to be disconnected; disabling the Internet access to the second computing device if it is determined that the Internet connection sharing is to be disconnected, wherein the Internet connection sharing session is to be disconnected when a distance between the second computing device and the first computing device exceeds a threshold distance; determining, at the first computing device, if the Internet connection sharing is to be reinitiated, wherein the Internet connection sharing session is to be reinitiated when the distance between the second computing device and the first computing device is within the threshold distance; determining, at the first computing device, if access rights for the Internet connection sharing are valid, in response to determining that the Internet connection sharing is to be reinitiated; and automatically reinitiating the Internet connection sharing between the first computing device and the second computing device, if the access rights for the Internet connection sharing are valid. initiating an Internet connection sharing between a first computing device and a second computing device, wherein the Internet connection sharing enables the first computing device to function as a host to provide Internet access to the second computing device; determining, at the first computing device, if the Internet connection sharing is to be disconnected; disabling the Internet access to the second computing device if it is determined that the Internet connection sharing is to be disconnected, wherein the Internet connection sharing session is to be disconnected when a distance between the second computing device and the first computing device exceeds a threshold distance; determining, at the first computing device, if the Internet connection sharing is to be reinitiated, wherein the Internet connection sharing session is to be reinitiated when the distance between the second computing device and the first computing device is within the threshold distance; determining, at the first computing device, if access rights for the Internet connection sharing are valid, in response to determining that the Internet connection sharing is to be reinitiated; and automatically reinitiating the Internet connection sharing between the first computing device and the second computing device, if the access rights for the Internet connection sharing are valid.
An analysis reagent kit for detecting two or more types of variants of the ALK fusion gene, the analysis reagent kit comprising a primer reagent and a probe, wherein the primer reagent comprises: a forward primer consisting of the sequence of the following oligonucleotide (F_V1/6); a forward primer consisting of the sequence of the following oligonucleotide (F_V2); a forward primer consisting of the sequence of the following oligonucleotide (F_V3a); a forward primer consisting of the sequence of the following oligonucleotide (F_V3b); a reverse primer consisting of the sequence of the following oligonucleotide (R_V/multi); and a reverse primer consisting of the sequence of the following oligonucleotide (R_V6), wherein (F_V1/6) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 1; (F_V2) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 2; (F_V3a) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 3; (F_V3b) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 4; (R_V/multi) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 5; and (R_V6): an oligonucleotide consisting of the base sequence of SEQ ID NO: 6, and the probe can hybridize to an amplification product produced using the primer reagent and can hybridize to the amplification product of two or more of the types of variants to be detected. a forward primer consisting of the sequence of the following oligonucleotide (F_V1/6); a forward primer consisting of the sequence of the following oligonucleotide (F_V2); a forward primer consisting of the sequence of the following oligonucleotide (F_V3a); a forward primer consisting of the sequence of the following oligonucleotide (F_V3b); a reverse primer consisting of the sequence of the following oligonucleotide (R_V/multi); and a reverse primer consisting of the sequence of the following oligonucleotide (R_V6), wherein (F_V1/6) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 1; (F_V2) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 2; (F_V3a) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 3; (F_V3b) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 4; (R_V/multi) is an oligonucleotide consisting of the base sequence of SEQ ID NO: 5; and (R_V6): an oligonucleotide consisting of the base sequence of SEQ ID NO: 6, and the probe can hybridize to an amplification product produced using the primer reagent and can hybridize to the amplification product of two or more of the types of variants to be detected.
A system (102, 202) comprising: one or more processors; and programming instructions configured to be executed by the one or more processors to perform operations including: receiving a search query; determining a plurality of byte sequences of a fixed length that correspond to the search query; searching an inverted index for each byte sequence of the plurality of byte sequences, wherein the inverted index specifies byte sequences of the fixed length and, for each specified byte sequence in the inverted index, the inverted index specifies one or more file identifiers of files that include the specified byte sequence as file contents; for each byte sequence of the plurality of byte sequences, obtaining, as a search result, file identifiers of files that include the byte sequence of the plurality of byte sequences as file contents; determining an intersection of the search results of the searching; and returning indications of files associated with file identifiers that are included in the intersection in response to the search query. one or more processors; and programming instructions configured to be executed by the one or more processors to perform operations including: receiving a search query; determining a plurality of byte sequences of a fixed length that correspond to the search query; searching an inverted index for each byte sequence of the plurality of byte sequences, wherein the inverted index specifies byte sequences of the fixed length and, for each specified byte sequence in the inverted index, the inverted index specifies one or more file identifiers of files that include the specified byte sequence as file contents; for each byte sequence of the plurality of byte sequences, obtaining, as a search result, file identifiers of files that include the byte sequence of the plurality of byte sequences as file contents; determining an intersection of the search results of the searching; and returning indications of files associated with file identifiers that are included in the intersection in response to the search query. receiving a search query; determining a plurality of byte sequences of a fixed length that correspond to the search query; searching an inverted index for each byte sequence of the plurality of byte sequences, wherein the inverted index specifies byte sequences of the fixed length and, for each specified byte sequence in the inverted index, the inverted index specifies one or more file identifiers of files that include the specified byte sequence as file contents; for each byte sequence of the plurality of byte sequences, obtaining, as a search result, file identifiers of files that include the byte sequence of the plurality of byte sequences as file contents; determining an intersection of the search results of the searching; and returning indications of files associated with file identifiers that are included in the intersection in response to the search query.
A method for calibrating an ambience lighting system comprising at least a first light source for providing an ambient light effect in an environment comprising a cinema display screen, the first light source configured for providing a first light output comprising a first code, the first code being embedded into the first light output as a first sequence of modulations in one or more characteristics of said first light output, the method comprising: obtaining one or more images of a scene being illuminated by the ambience lighting system, the scene comprising at least the first light output, processing the one or more images to determine, based on the first code embedded into the first light output, at least one of a color and an intensity of the first light output provided by the first light source, determining at least one of a color and an intensity of an image content to be displayed on the cinema display screen; determining a set of control data for controlling the first light source to provide the ambient light effect based on the determined at least one of the color and the intensity of the first light output provided by the first light source and on the determined at least one of the color and the intensity of the image content to be displayed on the cinema display screen. obtaining one or more images of a scene being illuminated by the ambience lighting system, the scene comprising at least the first light output, processing the one or more images to determine, based on the first code embedded into the first light output, at least one of a color and an intensity of the first light output provided by the first light source, determining at least one of a color and an intensity of an image content to be displayed on the cinema display screen; determining a set of control data for controlling the first light source to provide the ambient light effect based on the determined at least one of the color and the intensity of the first light output provided by the first light source and on the determined at least one of the color and the intensity of the image content to be displayed on the cinema display screen.
A method performed by a network node for using a single P hysical U plink C ontrol C hannel, PUCCH, resource to a plurality of communication devices such that the plurality of communication devices can share the single PUCCH resource, the method comprising: assigning a transmission mask to each one of a plurality of communication devices such that different transmission masks are assigned to different communication devices, each transmission mask indicating re-occurring transmission time periods during which each communication device is either allowed or disallowed to transmit S cheduling R equests, SRs, to the network node, whereby a SR periodicity pattern is defined for each one of the plurality communication devices; receiving a burst of SRs from at least one communication device; and identifying the at least one communication device from which the burst of SRs was received by recognizing the SR periodicity pattern of the received burst of SRs. assigning a transmission mask to each one of a plurality of communication devices such that different transmission masks are assigned to different communication devices, each transmission mask indicating re-occurring transmission time periods during which each communication device is either allowed or disallowed to transmit S cheduling R equests, SRs, to the network node, whereby a SR periodicity pattern is defined for each one of the plurality communication devices; receiving a burst of SRs from at least one communication device; and identifying the at least one communication device from which the burst of SRs was received by recognizing the SR periodicity pattern of the received burst of SRs.
A catalytic cracking process for producing light olefins, comprising a step of contacting a cracking feedstock with a catalytic cracking catalyst in the presence of a radical initiator for reaction under catalytic cracking conditions to obtain a product comprising light olefins, wherein the radical initiator comprises a dendritic polymer and/or a hyperbranched polymer, the catalytic cracking catalyst comprises an acidic zeolite catalyst and the cracking feedstock is selected from the group consisting of hydrocarbons having 4 to 14 carbon atoms, naphtha, light cycle oil, vacuum gas oil, vacuum residuum, or any combination thereof.
Assembly station intended for mounting a roof on top of a motor vehicle body shell comprising two body shell sides provided with upper side rails connected by at least one rear cross member, with the assembly station comprising a roof positioning table in such a way that the roof is available in order to be handled via a system for placing the roof with respect to the side rails and the cross member, providing for the positioning of the roof on the body shell and the shaping of the rear of the roof, with the table being in the vicinity of an electric spot-welding station and said system being associated with a handling robot so that this system can take said roof on the table and so that the roof is conveyed via the handling robot to said station which on the one hand is provided with a spot-welding robot intended at least for the welding of the rear of the roof on the rear cross member and on the other hand, on a shell transport line, is upstream from a cabin for laser welding of side edges of the roof to the side rails.
A walk-in apparatus for a seat of a vehicle, comprising an upper rail connected to the seat; a lower rail connected to a floor of the vehicle; a lead screw connected to the lower rail; characterised in that it comprises a male helical gear connected to the lead screw, the male helical gear including external splines; and a female helical gear connected to the upper rail, the female helical gear including internal splines configured to engage with the external splines of the male helical gear, wherein the male helical gear and the female helical gear are selectively separable, and wherein a torque transferred between the internal splines of the female helical gear and the external splines of the male helical gear when connected moves the upper rail relative to the lower rail.
A method for determining the thickness of a coating having a predetermined hiding power, the method comprising the following steps - providing a substrate - applying a reference marking to the substrate, the reference marking providing an initial predetermined contrast ratio relative to the substrate - applying successive layers of coating on the reference marking and the substrate and assessing said contrast ratio until a predetermined final contrast ratio has been obtained, the final contrast ratio being larger than the initial. - providing a substrate - applying a reference marking to the substrate, the reference marking providing an initial predetermined contrast ratio relative to the substrate - applying successive layers of coating on the reference marking and the substrate and assessing said contrast ratio until a predetermined final contrast ratio has been obtained, the final contrast ratio being larger than the initial.
Device for dissolving a gas like carbon dioxide into a liquid like a water-based beverage, comprising: - a pump for the liquid; - a mixing venturi nozzle with a main inlet fluidly connected to the pump, at least one side inlet connectable to a source of pressurized gas, and an outlet; - a flow restrictor fluidly downstream of the mixing venturi nozzle; and - a pipe, preferably of a length of at least 0.5m, fluidly interconnected between the mixing venturi nozzle and the flow restrictor; characterized in that: the flow restrictor is a conical flow restrictor comprising: - a body made of a main body (28 1) with an inlet and forming a cavity delimited by a diverging surface along a normal flow direction inside the cavity, and a cap (28 2) with an outlet and cooperating with the main body (28 1) so as to close it; and - a conical element housed in the cavity, wherein the external surface of the conical element is essentially complementary with the internal surface of the main body, wherein a gap forming a flow section for the liquid is provided between the external surface and the internal surface, the conical element having a plate-shaped end abutting the cap (28 2) comprising apertures permitting the liquid to flow to the outlet. - a pump for the liquid; - a mixing venturi nozzle with a main inlet fluidly connected to the pump, at least one side inlet connectable to a source of pressurized gas, and an outlet; - a flow restrictor fluidly downstream of the mixing venturi nozzle; and - a pipe, preferably of a length of at least 0.5m, fluidly interconnected between the mixing venturi nozzle and the flow restrictor; - a body made of a main body (28 1) with an inlet and forming a cavity delimited by a diverging surface along a normal flow direction inside the cavity, and a cap (28 2) with an outlet and cooperating with the main body (28 1) so as to close it; and - a conical element housed in the cavity, wherein the external surface of the conical element is essentially complementary with the internal surface of the main body, wherein a gap forming a flow section for the liquid is provided between the external surface and the internal surface, the conical element having a plate-shaped end abutting the cap (28 2) comprising apertures permitting the liquid to flow to the outlet.
A method of processing a cyclic physiological signal (30, 40, 52, 53, 54), the method comprising the steps of: - repeatedly collecting, using a sensor comprising a multi-axial accelerometer, the physiological signal (30, 40, 52, 53, 54) over a time period (31, 32, 33) covering two or more cycles of the cyclic physiological signal (30, 40, 52, 53, 54), wherein a next time period (31, 32, 33) is adjacent to or overlaps with a previous time period (31, 32, 33); - extracting values (3, 13), using an extraction unit, of a set of predefined parameters from the physiological signal (30, 40, 52, 53, 54) within each time period (31, 32, 33) which parameters characterize the physiological signal (30, 40, 52, 53, 54) within the time period (31, 32, 33) as a function of time, frequency and position in space; and - classifying (4, 14), using a classifying unit, the physiological signal (30, 40, 52, 53, 54) within each time period (31, 32, 33) based upon the extracted set of predefined parameter values. - repeatedly collecting, using a sensor comprising a multi-axial accelerometer, the physiological signal (30, 40, 52, 53, 54) over a time period (31, 32, 33) covering two or more cycles of the cyclic physiological signal (30, 40, 52, 53, 54), wherein a next time period (31, 32, 33) is adjacent to or overlaps with a previous time period (31, 32, 33); - extracting values (3, 13), using an extraction unit, of a set of predefined parameters from the physiological signal (30, 40, 52, 53, 54) within each time period (31, 32, 33) which parameters characterize the physiological signal (30, 40, 52, 53, 54) within the time period (31, 32, 33) as a function of time, frequency and position in space; and - classifying (4, 14), using a classifying unit, the physiological signal (30, 40, 52, 53, 54) within each time period (31, 32, 33) based upon the extracted set of predefined parameter values.