mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: capturing an image of a scene, by an image capturing unit of a device , the device further comprising at least one inertial sensor ; determining a location of at least one vanishing point in the captured image of the scene; determining a measured device orientation of the device based on one or more measurements performed by the at least one inertial sensor of the device ; and determining candidate positions of the device in a region including an area corresponding to the scene based, at least in part, on the location of the at least one vanishing point in the captured image of the scene, the measured device orientation, and orientation data associated with multiple areas within the region, wherein determining the candidate positions comprises: determining candidate hallways from the multiple areas within the region based on relative orientation of the device determined from the location of the at least one vanishing point in the captured image , and based on the measured device orientation. capturing an image of a scene, by an image capturing unit of a device , the device further comprising at least one inertial sensor ; determining a location of at least one vanishing point in the captured image of the scene; determining a measured device orientation of the device based on one or more measurements performed by the at least one inertial sensor of the device ; and determining candidate positions of the device in a region including an area corresponding to the scene based, at least in part, on the location of the at least one vanishing point in the captured image of the scene, the measured device orientation, and orientation data associated with multiple areas within the region, wherein determining the candidate positions comprises: determining candidate hallways from the multiple areas within the region based on relative orientation of the device determined from the location of the at least one vanishing point in the captured image , and based on the measured device orientation.
A pile-driver assembly for driving a pile into the ground, preferably offshore, the assembly being characterized by including: a casing defining a chamber , the chamber being configured to house a fluid, the chamber comprising a channel extending at least partially therethrough; a positioning element configured to position the casing at or on the pile, wherein at least a portion of the positioning element is positioned between the chamber and the pile, wherein the positioning element comprises a guide element extending at least partially through the channel of the chamber ; and actuating means, wherein the actuating means is configured to be actuated to displace the chamber relative to the positioning element, such that the chamber moves away from the pile, and wherein the actuating means is configured to be actuated to release the chamber for displacement towards the pile such that a force is exerted by the chamber on the positioning element, to controllably drive the pile into the ground. a casing defining a chamber , the chamber being configured to house a fluid, the chamber comprising a channel extending at least partially therethrough; a positioning element configured to position the casing at or on the pile, wherein at least a portion of the positioning element is positioned between the chamber and the pile, wherein the positioning element comprises a guide element extending at least partially through the channel of the chamber ; and actuating means, wherein the actuating means is configured to be actuated to displace the chamber relative to the positioning element, such that the chamber moves away from the pile, and wherein the actuating means is configured to be actuated to release the chamber for displacement towards the pile such that a force is exerted by the chamber on the positioning element, to controllably drive the pile into the ground. wherein the actuating means is configured to be actuated to displace the chamber relative to the positioning element, such that the chamber moves away from the pile, and wherein the actuating means is configured to be actuated to release the chamber for displacement towards the pile such that a force is exerted by the chamber on the positioning element, to controllably drive the pile into the ground.
An apparatus, comprising: an expandable member configured to transition from a collapsed configuration to an expanded configuration, the expandable member including a plurality of flexible segments that form a tubular wall defining an interior volume, the plurality of flexible segments configured to contact an inner surface of a blood vessel when the expandable member is in the expanded position, the expandable member including a plurality of attachment portions ; a blood pump including a housing ; and a plurality of struts each having a first end portion coupled to the housing, each strut from the plurality of struts having a second end portion configured to be removably coupled to a corresponding attachment portion from the plurality of attachment portions, such that the blood pump is configured to be removably coupled to the expandable member with at least a portion of the housing disposed within the interior volume of the expandable member, characterized in that , the second end portion of a strut from the plurality of struts is configured to be slidingly disposed within a slot defined by an attachment portion from the plurality of attachment portions. an expandable member configured to transition from a collapsed configuration to an expanded configuration, the expandable member including a plurality of flexible segments that form a tubular wall defining an interior volume, the plurality of flexible segments configured to contact an inner surface of a blood vessel when the expandable member is in the expanded position, the expandable member including a plurality of attachment portions ; a blood pump including a housing ; and a plurality of struts each having a first end portion coupled to the housing, each strut from the plurality of struts having a second end portion configured to be removably coupled to a corresponding attachment portion from the plurality of attachment portions, such that the blood pump is configured to be removably coupled to the expandable member with at least a portion of the housing disposed within the interior volume of the expandable member, characterized in that , the second end portion of a strut from the plurality of struts is configured to be slidingly disposed within a slot defined by an attachment portion from the plurality of attachment portions.
A vapor deposition film, comprising: a protection layer; a decoration layer; and a vapor deposition layer, wherein the vapor deposition layer includes a metal including at least any one of indium and tin, wherein the decoration layer includes a resin and a black pigment, and wherein the black pigment includes carbon black and manganese ferrite having a spinel structure ((Fe,Mn)(Fe,Mn)2O4), wherein a content of the manganese ferrite among components forming the decoration layer in terms of a solid content is from 2.0 mass% to 15.0 mass%, and a content of the carbon black among components forming the decoration layer in terms of a solid content is from 0.5 mass% to 8.0 mass%, and wherein the protection layer, the decoration layer, and the vapor deposition layer are directly laminated in the stated order. a protection layer; a decoration layer; and a vapor deposition layer, wherein the vapor deposition layer includes a metal including at least any one of indium and tin, wherein the decoration layer includes a resin and a black pigment, and wherein the black pigment includes carbon black and manganese ferrite having a spinel structure ((Fe,Mn)(Fe,Mn)2O4), wherein a content of the manganese ferrite among components forming the decoration layer in terms of a solid content is from 2.0 mass% to 15.0 mass%, and a content of the carbon black among components forming the decoration layer in terms of a solid content is from 0.5 mass% to 8.0 mass%, and wherein the protection layer, the decoration layer, and the vapor deposition layer are directly laminated in the stated order.
Method for illuminating at least one sample in SPIM microscopy, including the following steps: a. producing a light beam , b. producing a strip of light from the light beam using an optical means that interacts with the light beam , characterized by the further steps of: c. guiding the strip of light through at least one objective having an optical unit (4.2) which is configured and intended for guiding detection light coming from the sample directly or indirectly to a detector , wherein the optical unit (4.2) of the objective interacts with the strip of light , and d. diverting the strip of light using a diverting apparatus connected downstream of the optical unit (4.2) of the objective in a manner such that the strip of light , for illuminating the sample , propagates after the diversion at an angle that differs from zero degrees with respect to the optical axis of the objective . a. producing a light beam , b. producing a strip of light from the light beam using an optical means that interacts with the light beam , c. guiding the strip of light through at least one objective having an optical unit (4.2) which is configured and intended for guiding detection light coming from the sample directly or indirectly to a detector , wherein the optical unit (4.2) of the objective interacts with the strip of light , and d. diverting the strip of light using a diverting apparatus connected downstream of the optical unit (4.2) of the objective in a manner such that the strip of light , for illuminating the sample , propagates after the diversion at an angle that differs from zero degrees with respect to the optical axis of the objective .
A non-ionic silicone hydrogel having a modulus of 965 kPa to 13790 Kpa (140 to 2000 psi) and a water content of 20 to 50%, formed from a reactive mixture comprising at least one N-alkyl methacrylamide and at least one silicone containing component; wherein the modulus is measured according to the method described in the description.
A singulated unitary electronic package (200; 700) comprising a plurality of components, comprising at least a first die and a second die , a mold cap (212; 702) having a variable thickness (214; 216; 218; 704; 706) comprising a first portion (214; 706) of a thickness of a mold cap that is smaller than a third portion (218; 704) of the mold cap, a second portion of a thickness of a mold cap that is greater than the third portion , characterised in that the thickness of the first portion compared to the third portion is designed to compensate for a predetermined amount of warpage caused by the first die and wherein the thickness of the second portion is designed to compensate for a predetermined amount of warpage caused by the second die, in that the location of the portions of increased or decreased thickness depends on the location of each of the plurality of the underlying components to compensate for either positive/convex direction or negative/concave direction warpage of each of the plurality of components (204; 206; 708) underlying the mold cap.
A dining system , comprising: at least one serving receptacle ; an information processor and multiple utensils , wherein each utensil has an identifier , and wherein each serving receptacle comprises: a measuring system , for measuring an amount of food on the serving receptacle, a reader for reading the identifier of any of said utensils that is brought to a position in which it can remove food from the serving receptacle, a transmitter , for notifying the information processor of a change in the amount of food on the serving receptacle and of an identified utensil that is in a position in which it can remove food from the serving receptacle at a time of said change in the amount of food on the serving receptacle, and wherein the information processor is configured for storing information relating to a total quantity of food removed from the serving receptacle by the identified utensil. at least one serving receptacle ; an information processor and multiple utensils , wherein each utensil has an identifier , and wherein each serving receptacle comprises: a measuring system , for measuring an amount of food on the serving receptacle, a reader for reading the identifier of any of said utensils that is brought to a position in which it can remove food from the serving receptacle, a transmitter , for notifying the information processor of a change in the amount of food on the serving receptacle and of an identified utensil that is in a position in which it can remove food from the serving receptacle at a time of said change in the amount of food on the serving receptacle, and wherein the information processor is configured for storing information relating to a total quantity of food removed from the serving receptacle by the identified utensil. a measuring system , for measuring an amount of food on the serving receptacle, a reader for reading the identifier of any of said utensils that is brought to a position in which it can remove food from the serving receptacle, a transmitter , for notifying the information processor of a change in the amount of food on the serving receptacle and of an identified utensil that is in a position in which it can remove food from the serving receptacle at a time of said change in the amount of food on the serving receptacle, and wherein the information processor is configured for storing information relating to a total quantity of food removed from the serving receptacle by the identified utensil.
Base station for connecting a mobile cleaning device , characterized, in that the base station is equipped with a measuring device for measuring the quality of the room air (RL).
An optical transceiver comprising: a bandwidth calculating unit and a test signal receiving unit , the bandwidth calculating unit is configured to calculate, when test signals are sent to a transmission line of an optical communication network from a test signal transmitting unit and the test signal receiving unit receives the test signals transmitted by said test signal transmitting unit through said transmission line and a plurality of wavelength filters (6-1a, 6-2a), a bandwidth of the test signals received by the test signal receiving unit, the test signal transmitting unit is configured to generate, as the test signals, a collection of narrowband signals, the narrowband signals being a plurality of signals having a narrower bandwidth than a bandwidth of the wavelength filters and having different frequencies, and each wavelength filter being included in an optical splitter (6-1, 6-2) inserted in the transmission line, and the collection of narrowband signals including a narrowband signal having a higher frequency than a highest frequency in the bandwidth of the wavelength filters and a narrowband signal having a lower frequency than a lowest frequency in the bandwidth of the wavelength filters, the bandwidth calculating unit being configured to calculate said bandwidth of the test signals by: - calculating the frequencies of the test signals ; - identifying the lowest frequency and the highest frequency among the calculated frequencies; - calculating a bandwidth from the lowest frequency to the highest frequency as a bandwidth of the test signals having passed through the wavelength filters; and a transmission signal determining unit to perform determination of a modulation rate of a transmission signal and a modulation level of the transmission signal depending on the bandwidth calculated by the bandwidth calculating unit. - calculating the frequencies of the test signals ; - identifying the lowest frequency and the highest frequency among the calculated frequencies; - calculating a bandwidth from the lowest frequency to the highest frequency as a bandwidth of the test signals having passed through the wavelength filters; and
A method for performing autonomous driving operation, comprising: receiving , from a first set of sensors coupled to axles of a vehicle, a first set of values that indicate weights or pressures applied on axles of the vehicle; receiving , from a second set of sensors coupled to tires or tire wheels of the vehicle, a second set of values that indicate pressures in tires of the vehicle; generating a first set of filtered values from the first set of values and a second set of filtered values from the second set of values by performing an error detection and removal operation on the first set of values and the second set of values, respectively; determining , for each axle of the vehicle, one or more values that describe weight or pressure applied on a corresponding axle to obtain a weight distribution of the vehicle, wherein the one or more values for each axle are based on at least one value from the first set of filtered values for an axle or at least two values from the second set of filtered values for at least two tires coupled to the axle; and determining a driving related operation of the vehicle based on the determined one or more values for each axle that describe the weight distribution of the vehicle. receiving , from a first set of sensors coupled to axles of a vehicle, a first set of values that indicate weights or pressures applied on axles of the vehicle; receiving , from a second set of sensors coupled to tires or tire wheels of the vehicle, a second set of values that indicate pressures in tires of the vehicle; generating a first set of filtered values from the first set of values and a second set of filtered values from the second set of values by performing an error detection and removal operation on the first set of values and the second set of values, respectively; determining , for each axle of the vehicle, one or more values that describe weight or pressure applied on a corresponding axle to obtain a weight distribution of the vehicle, wherein the one or more values for each axle are based on at least one value from the first set of filtered values for an axle or at least two values from the second set of filtered values for at least two tires coupled to the axle; and determining a driving related operation of the vehicle based on the determined one or more values for each axle that describe the weight distribution of the vehicle.
A user equipment, comprising: a signaling receiving unit , configured to receive signaling from a base station carrying a target Ncs index indicating an Ncs value for calculating a cyclic shift value; and a processing unit, configured to: obtain the Ncs value indicated by the target Ncs index, according to the target Ncs index and a preset correspondence between a set of Ncs indexes and a set of Ncs values, wherein the set of Ncs values comprises ; calculate the cyclic shift value based on the Ncs value indicated by the target Ncs index; obtain a first logic root sequence number; determine a root sequence based on the first logic root sequence number; and generate a random access preamble sequence based on the root sequence and the cyclic shift value, wherein the random access preamble sequence is x u,v ( n ) , and wherein x u,v ( n ) = x u (( n + C v )mod N ZC ), x u n = e − j π un n + 1 N ZC , 0≤ n ≤ N ZC -1, C v is the cyclic shift value, u is a physical root sequence number, and N ZC = 839, and wherein the user equipment is configured to perform random access by using the random access preamble sequence generated based on the cyclic shift value and the root sequence. a signaling receiving unit , configured to receive signaling from a base station carrying a target Ncs index indicating an Ncs value for calculating a cyclic shift value; and a processing unit, configured to: obtain the Ncs value indicated by the target Ncs index, according to the target Ncs index and a preset correspondence between a set of Ncs indexes and a set of Ncs values, wherein the set of Ncs values comprises ; calculate the cyclic shift value based on the Ncs value indicated by the target Ncs index; obtain a first logic root sequence number; determine a root sequence based on the first logic root sequence number; and generate a random access preamble sequence based on the root sequence and the cyclic shift value, obtain the Ncs value indicated by the target Ncs index, according to the target Ncs index and a preset correspondence between a set of Ncs indexes and a set of Ncs values, wherein the set of Ncs values comprises ; calculate the cyclic shift value based on the Ncs value indicated by the target Ncs index; obtain a first logic root sequence number; determine a root sequence based on the first logic root sequence number; and generate a random access preamble sequence based on the root sequence and the cyclic shift value, wherein the random access preamble sequence is x u,v ( n ) , and wherein x u,v ( n ) = x u (( n + C v )mod N ZC ), x u n = e − j π un n + 1 N ZC , 0≤ n ≤ N ZC -1, C v is the cyclic shift value, u is a physical root sequence number, and N ZC = 839, and wherein the user equipment is configured to perform random access by using the random access preamble sequence generated based on the cyclic shift value and the root sequence.
A method of significance group flag and significance map coding, the method comprising: receiving a significance group flag associated with a transform unit, in the following named "TU", wherein the TU is divided into one or more sub-blocks, the significance group flag is associated with one specific sub-block among the one or more sub-blocks and indicates whether the specific sub-block is entirely zero; receiving a significance map associated with the specific sub-block; coding said significance group flag based on a first block-based context set selection, wherein the first block-based context set selection depends on a horizontal sub-block index, a vertical sub-block index, or both the horizontal sub-block index and the vertical sub-block index; and coding said significance map based on a second block-based context set selection. receiving a significance group flag associated with a transform unit, in the following named "TU", wherein the TU is divided into one or more sub-blocks, the significance group flag is associated with one specific sub-block among the one or more sub-blocks and indicates whether the specific sub-block is entirely zero; receiving a significance map associated with the specific sub-block; coding said significance group flag based on a first block-based context set selection, wherein the first block-based context set selection depends on a horizontal sub-block index, a vertical sub-block index, or both the horizontal sub-block index and the vertical sub-block index; and coding said significance map based on a second block-based context set selection.