mhurhangee/patent-ind-claim-en huggingface dataset:
A resource indication method, comprising: sending , by a first device, a first bitmap to a second device, wherein the first bitmap is used for indicating frequency domain resources for data or signaling transmission between the first device and the second device, and the first bitmap corresponds to two resource block group sizes; a dimension of the first bitmap is a first number of bits, wherein a first part of bits in the first number of bits corresponds to a first resource block group size, and a second part of bits in the first number of bits corresponds to a second resource block group size, the first resource block group size is twice as large as the second resource block group size, characterized in that wherein the first bitmap is used for indicating frequency domain resources in a bandwidth comprising N resource blocks, and the first part of bits and the second part of bits satisfy: N = B1 × P1 + B2 × P2 − N Δ ; wherein B1 represents a number of the first part of bits, B2 represents a number of the second part of bits, and a sum of B1 and B2 is equal to the first number; P1 represents the first resource block group size, P2 represents the second resource block group size, and N Δ is an integer number less than P2 and larger than zero; wherein a number of N Δ of bits in the first bitmap is not configured for resource indication, and wherein bits of the number N Δ are filled with zero. sending , by a first device, a first bitmap to a second device, wherein the first bitmap is used for indicating frequency domain resources for data or signaling transmission between the first device and the second device, and the first bitmap corresponds to two resource block group sizes; a dimension of the first bitmap is a first number of bits, wherein a first part of bits in the first number of bits corresponds to a first resource block group size, and a second part of bits in the first number of bits corresponds to a second resource block group size, the first resource block group size is twice as large as the second resource block group size, characterized in that wherein the first bitmap is used for indicating frequency domain resources in a bandwidth comprising N resource blocks, and the first part of bits and the second part of bits satisfy: N = B1 × P1 + B2 × P2 − N Δ ; wherein B1 represents a number of the first part of bits, B2 represents a number of the second part of bits, and a sum of B1 and B2 is equal to the first number; P1 represents the first resource block group size, P2 represents the second resource block group size, and N Δ is an integer number less than P2 and larger than zero; wherein a number of N Δ of bits in the first bitmap is not configured for resource indication, and wherein bits of the number N Δ are filled with zero.
A method of evaluating a chain of alerts, comprising: grouping a plurality of alerts into a plurality of sets of alerts based on at least one predetermined relationship between the alerts; determining , for each set of alerts, a score representing a statistical likelihood that at least one alert in the set of alerts is correlated to at least one other alert in the set of alerts, to determine a plurality of scores for the sets; forming a model that includes the determined scores; receiving a chain of alerts; determining if the chain of alerts corresponds to a score in the model by matching the chain of alerts to the set of alerts in the model having said score associated; in response to determining that the chain of alerts corresponds to a score in the model, determining whether the score in the model corresponding to the chain of alerts meets a predetermined criteria; and in response to determining the score in the model corresponding to the chain of alerts meets the predetermined criteria, providing an indication to a user. grouping a plurality of alerts into a plurality of sets of alerts based on at least one predetermined relationship between the alerts; determining , for each set of alerts, a score representing a statistical likelihood that at least one alert in the set of alerts is correlated to at least one other alert in the set of alerts, to determine a plurality of scores for the sets; forming a model that includes the determined scores; receiving a chain of alerts; determining if the chain of alerts corresponds to a score in the model by matching the chain of alerts to the set of alerts in the model having said score associated; in response to determining that the chain of alerts corresponds to a score in the model, determining whether the score in the model corresponding to the chain of alerts meets a predetermined criteria; and in response to determining the score in the model corresponding to the chain of alerts meets the predetermined criteria, providing an indication to a user.
A method of processing a target object (W) to be processed including a porous film (PL) having pores and a mask (MK2) which is made of an organic material and formed on the porous film (PL), the method comprising: supplying a first gas into a processing chamber of a plasma processing apparatus in which the target object (W) including the porous film (PL) is accommodated; and generating a plasma of a second gas in the processing chamber to remove a portion of the mask (MK2), an average value of maximum widths of the respective pores being in a range from 1 nm to 2 nm, wherein the first gas includes a processing gas having a saturated vapor pressure of less than or equal to 133.3 Pa at a temperature of a stage on which the target object is mounted in the processing chamber , wherein in said supplying the first gas, no plasma is generated, a partial pressure of the processing gas of the first gas supplied into the processing chamber is greater than or equal to 20% and less than or equal to 100% of the saturated vapor pressure of the first gas, and the temperature of a stage on which the target object (W) is mounted in the processing chamber is set to be higher than or equal to -50° C, such that the processing gas of the first gas enters into the pores and is liquefied in the pores by capillary condensation, and wherein in said generating the plasma of the second gas, the portion of the mask (MK2) is removed while the pores are filled with the liquefied processing gas of the first gas. supplying a first gas into a processing chamber of a plasma processing apparatus in which the target object (W) including the porous film (PL) is accommodated; and generating a plasma of a second gas in the processing chamber to remove a portion of the mask (MK2), an average value of maximum widths of the respective pores being in a range from 1 nm to 2 nm, wherein the first gas includes a processing gas having a saturated vapor pressure of less than or equal to 133.3 Pa at a temperature of a stage on which the target object is mounted in the processing chamber , wherein in said supplying the first gas, no plasma is generated, a partial pressure of the processing gas of the first gas supplied into the processing chamber is greater than or equal to 20% and less than or equal to 100% of the saturated vapor pressure of the first gas, and the temperature of a stage on which the target object (W) is mounted in the processing chamber is set to be higher than or equal to -50° C, such that the processing gas of the first gas enters into the pores and is liquefied in the pores by capillary condensation, and wherein in said generating the plasma of the second gas, the portion of the mask (MK2) is removed while the pores are filled with the liquefied processing gas of the first gas.
A device attached to a real object comprising: - a plurality of detectable reference points representative of a position and an orientation of the device in a three-dimensional space; - a memory for storing data comprising: ∘ a three-dimensional description of said object that defines a three-dimensional form of said object in real-world dimensions; ∘ a position and orientation of the device relative to said three-dimensional description of said object; and - means for emitting said data. - a plurality of detectable reference points representative of a position and an orientation of the device in a three-dimensional space; - a memory for storing data comprising: ∘ a three-dimensional description of said object that defines a three-dimensional form of said object in real-world dimensions; ∘ a position and orientation of the device relative to said three-dimensional description of said object; and ∘ a three-dimensional description of said object that defines a three-dimensional form of said object in real-world dimensions; ∘ a position and orientation of the device relative to said three-dimensional description of said object; and - means for emitting said data.
Modular shelving comprising at least one shelf supported by at least one tube , wherein said at least one shelf is coupled to said at least one tube by means of a coupling element which is arranged externally on said tube and internally in a hole which passes through the shelf , wherein each coupling element is divided longitudinally into two identical halves, wherein the two identical halves fit together by means of a tongue and groove joint and, being coupled, can fit tightly into a hole of a shelf , whereby a tube supporting the shelf is fitted, wherein for each coupling element the shelving comprises two clamping pieces , one positioned on each side of the shelf in a close-fitting manner, wherein the coupling between the coupling element and each clamping piece is achieved by axially engaging flanges comprising each coupling element in corresponding coupling openings located in an inner flange of each clamping piece , so that the relative rotation of the clamping piece relative to the coupling element , once axially seated, causes the retention of the tabs on the inner flange of the clamping piece , in which each clamping piece has a sealing cap that covers the openings and the annular space between the tube and a perimeter contour of said clamping piece by means of clipping in some sealing openings that each clamping piece has.
A molding mold for injection molding of a preform, the molding mold comprising: an injection cavity mold configured to form an outer surface of a body part of the preform and an outer surface of a bottom part of the preform, wherein the injection cavity mold includes a first cavity mold in which a cavity that is a space configured to be filled with a resin material is formed, and a cylindrical second cavity mold having an insertion hole at a center thereof, and wherein the first cavity mold and the second cavity mold are integrated in a state where the first cavity mold is inserted into the insertion hole , and a cooling flow path to which a cooling medium is configured to be supplied is formed between the first cavity mold and the second cavity mold ; characterized by a plurality of annular outer flange portions protruding outward are provided, at a predetermined interval, on an outer peripheral surface of the first cavity mold , and by a plurality of annular inner flange portions protruding inward are provided, at a predetermined interval, on an inner peripheral surface of the second cavity mold , wherein the first cavity mold and the second cavity mold are integrated in a state where the inner flange portions and the outer flange portions are in contact with each other, and wherein a plurality of annular flow paths , which are partitioned by the outer flange portions and the inner flange portions and form the cooling flow path , are formed between the first cavity mold and the second cavity mold . an injection cavity mold configured to form an outer surface of a body part of the preform and an outer surface of a bottom part of the preform, wherein the injection cavity mold includes a first cavity mold in which a cavity that is a space configured to be filled with a resin material is formed, and a cylindrical second cavity mold having an insertion hole at a center thereof, and wherein the first cavity mold and the second cavity mold are integrated in a state where the first cavity mold is inserted into the insertion hole , and a cooling flow path to which a cooling medium is configured to be supplied is formed between the first cavity mold and the second cavity mold ; a plurality of annular outer flange portions protruding outward are provided, at a predetermined interval, on an outer peripheral surface of the first cavity mold , and by a plurality of annular inner flange portions protruding inward are provided, at a predetermined interval, on an inner peripheral surface of the second cavity mold , wherein the first cavity mold and the second cavity mold are integrated in a state where the inner flange portions and the outer flange portions are in contact with each other, and wherein a plurality of annular flow paths , which are partitioned by the outer flange portions and the inner flange portions and form the cooling flow path , are formed between the first cavity mold and the second cavity mold .
An audio decoder for decoding an encoded audio stream representing a sampled audio signal to obtain a sequence of segments of coefficients being subsequent to each other in time and representing the sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions, comprising a processor for deriving a coding context for a currently decoded coefficient of a current segment based on a previously decoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and an entropy decoder for entropy decoding the current coefficient based on the coding context and the encoded audio stream, wherein the processor is adapted for deriving the coding context per spectral band for the current coefficient, based on neighbouring spectral coefficients previously decoded in the previous segment and optionally in the present segment, wherein the entropy decoder is adapted for decoding a group index from the encoded audio stream based on a probability distribution derived from the coding context, wherein the group index represents a group of one or more codewords, and for, based on a uniform probability distribution, decoding an element index from the encoded audio stream if the group index indicates a group comprising more than one codeword, and for deriving a tuple of spectral coefficients of the current segment based on the group index and the element index, thereby obtaining the spectral domain representation in tuples of spectral coefficients, and wherein the entropy decoder is an arithmetic decoder. a processor for deriving a coding context for a currently decoded coefficient of a current segment based on a previously decoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and an entropy decoder for entropy decoding the current coefficient based on the coding context and the encoded audio stream, wherein the processor is adapted for deriving the coding context per spectral band for the current coefficient, based on neighbouring spectral coefficients previously decoded in the previous segment and optionally in the present segment, wherein the entropy decoder is adapted for decoding a group index from the encoded audio stream based on a probability distribution derived from the coding context, wherein the group index represents a group of one or more codewords, and for, based on a uniform probability distribution, decoding an element index from the encoded audio stream if the group index indicates a group comprising more than one codeword, and for deriving a tuple of spectral coefficients of the current segment based on the group index and the element index, thereby obtaining the spectral domain representation in tuples of spectral coefficients, and wherein the entropy decoder is an arithmetic decoder.
A transparent conductive film-equipped glass substrate including a glass substrate, an underlying glass layer provided on the glass substrate, and a transparent conductive film provided on the underlying glass layer and subjected to patterning by laser, the underlying glass layer having an absorptance of a wavelength of the laser lower than the transparent conductive film and higher than the glass substrate, wherein a patterned region formed by removing part of the transparent conductive film by the patterning by laser includes a first linear portion, a second linear portion, and a connecting portion formed into an arc connecting between the first linear portion and the second linear portion, the first linear portion and the second linear portion form an angle of 120° or less with each other, and the connecting portion formed into an arc has a radius of curvature of 0.5 mm or more.
A method performed by a user equipment to facilitate self-organizing network, SON, enhancement in a wireless network, the method comprising: receiving , from the wireless network, a downlink SON message , the downlink SON message indicative of a test scenario and specifying at least one radio access network parameter for an alternative network configuration to be used in the test scenario ; and communicating user data with at least one base station using at least a first wireless connection and a second wireless connection that are simultaneously extant during at least a portion of an execution of the test scenario , the first wireless connection to be unchanged by the test scenario , and the second wireless connection to use the at least one radio access network parameter . receiving , from the wireless network, a downlink SON message , the downlink SON message indicative of a test scenario and specifying at least one radio access network parameter for an alternative network configuration to be used in the test scenario ; and communicating user data with at least one base station using at least a first wireless connection and a second wireless connection that are simultaneously extant during at least a portion of an execution of the test scenario , the first wireless connection to be unchanged by the test scenario , and the second wireless connection to use the at least one radio access network parameter .
A flowmeter for measuring flow of a process fluid through a conduit , comprising: a pitot tube extending into the conduit which creates a differential pressure in the process fluid due to flow of the process fluid; an upstream process variable sensor mounted on an upstream side of the pitot tube and exposed to an upstream pressure generated by the flow of process fluid, configured to sense an upstream process variable of the process fluid; a downstream process variable sensor positioned downstream of the upstream process variable sensor , and mounted on a downstream side of the pitot tube and exposed to a downstream pressure generated by the flow of process fluid, configured to sense a downstream process variable of the process fluid; and a measurement circuitry configured to determine the flow of the process fluid based upon a frequency of an output from the upstream process variable sensor and a frequency of an output from the downstream process variable sensor , and capable of providing a diagnostic output; wherein the upstream and downstream process variable sensors comprise pressure sensors which sense an upstream pressure and a downstream pressure of the process fluid. a pitot tube extending into the conduit which creates a differential pressure in the process fluid due to flow of the process fluid; an upstream process variable sensor mounted on an upstream side of the pitot tube and exposed to an upstream pressure generated by the flow of process fluid, configured to sense an upstream process variable of the process fluid; a downstream process variable sensor positioned downstream of the upstream process variable sensor , and mounted on a downstream side of the pitot tube and exposed to a downstream pressure generated by the flow of process fluid, configured to sense a downstream process variable of the process fluid; and a measurement circuitry configured to determine the flow of the process fluid based upon a frequency of an output from the upstream process variable sensor and a frequency of an output from the downstream process variable sensor , and capable of providing a diagnostic output; wherein the upstream and downstream process variable sensors comprise pressure sensors which sense an upstream pressure and a downstream pressure of the process fluid.
A method of mounting an attachment on an arm of a material handling machine including the steps of: (a) providing an arm including a first plate , a second plate and a pair of side walls welded to each of the first plate and the second plate , the arm having a connector for pivotable mounting of the attachment at a first end of the arm and a connector for pivotable mounting to a further component of the material handling machine at a second end of the arm opposite to the first end ; and wherein the second plate has two opposite edges and a first of the pair of side walls is welded inward of one edge and a second of the pair of side walls is welded inward of the other edge to form two flanges , each of the two flanges extending on opposite sides of the second plate and each of the two flanges having at least one hole at each of its ends; (b) providing a bracket including a mounting plate having a pair of lugs for supporting an actuator for the attachment ; the pair of lugs being positioned in a central portion of the mounting plate ; and the mounting plate having at least one hole adjacent to each of its corners; (c) aligning the holes of the mounting plate with the holes on each of the pair of flanges ; (d) securing the bracket on the arm by securing the mounting plate to each of the pair of the flanges by passing a fastener through each hole of the mounting plate and the corresponding hole on each of the pair of flanges ; (e) mounting the actuator for the attachment on the pair of lugs ; (f) mounting the attachment on the connector at the first end of the arm ; and (g) connecting the actuator to the attachment . (a) providing an arm including a first plate , a second plate and a pair of side walls welded to each of the first plate and the second plate , the arm having a connector for pivotable mounting of the attachment at a first end of the arm and a connector for pivotable mounting to a further component of the material handling machine at a second end of the arm opposite to the first end ; and wherein the second plate has two opposite edges and a first of the pair of side walls is welded inward of one edge and a second of the pair of side walls is welded inward of the other edge to form two flanges , each of the two flanges extending on opposite sides of the second plate and each of the two flanges having at least one hole at each of its ends; (b) providing a bracket including a mounting plate having a pair of lugs for supporting an actuator for the attachment ; the pair of lugs being positioned in a central portion of the mounting plate ; and the mounting plate having at least one hole adjacent to each of its corners; (c) aligning the holes of the mounting plate with the holes on each of the pair of flanges ; (d) securing the bracket on the arm by securing the mounting plate to each of the pair of the flanges by passing a fastener through each hole of the mounting plate and the corresponding hole on each of the pair of flanges ; (e) mounting the actuator for the attachment on the pair of lugs ; (f) mounting the attachment on the connector at the first end of the arm ; and (g) connecting the actuator to the attachment .