mhurhangee/ep-ind-claims huggingface dataset:
An apparatus to cover at least one mobile device component, comprising: a) a cover assembly, including a front camera cover to cover a front camera, wherein said cover assembly further includes an actuating member, wherein said actuating member urges said front camera cover towards said front camera until said front camera is covered, wherein said actuating member is located on a back surface of a mobile device, wherein said front camera cover begins on said back surface and moves along said back surface until said front camera cover wraps over a top edge of said mobile device to then cover said front camera, said cover assembly has a thickness and a tunnel located within said thickness; and b) a case assembly that includes said cover assembly, wherein said case assembly is adapted to be mounted to said mobile device. a) a cover assembly, including a front camera cover to cover a front camera, wherein said cover assembly further includes an actuating member, wherein said actuating member urges said front camera cover towards said front camera until said front camera is covered, wherein said actuating member is located on a back surface of a mobile device, wherein said front camera cover begins on said back surface and moves along said back surface until said front camera cover wraps over a top edge of said mobile device to then cover said front camera, said cover assembly has a thickness and a tunnel located within said thickness; and b) a case assembly that includes said cover assembly, wherein said case assembly is adapted to be mounted to said mobile device.
An air conditioner comprising: a heat exchanger that includes an upper part and a lower part and exchanges heat between air and a refrigerant; an air cleaner that includes a charging unit configured to charge particles in the air by an electrostatic force and a dust collecting unit to collect the particles charged by the charging unit; and an indoor unit body that houses the heat exchanger and houses, on an upstream side of the heat exchanger, the air cleaner of which a center position in a height direction is positioned lower than a connection part between the upper and lower parts (131, 132) of the heat exchanger, wherein an opening is provided in a surface of the air cleaner and a suction port is provided in an upper surface of the indoor unit body in order to suck the air into the indoor unit body, characterised in that the opening of the air cleaner is opposed to the suction port and provided in an upper surface of the air cleaner in order to allow the air to flow into the air cleaner from the suction port. a heat exchanger that includes an upper part and a lower part and exchanges heat between air and a refrigerant; an air cleaner that includes a charging unit configured to charge particles in the air by an electrostatic force and a dust collecting unit to collect the particles charged by the charging unit; and an indoor unit body that houses the heat exchanger and houses, on an upstream side of the heat exchanger, the air cleaner of which a center position in a height direction is positioned lower than a connection part between the upper and lower parts (131, 132) of the heat exchanger, wherein an opening is provided in a surface of the air cleaner and a suction port is provided in an upper surface of the indoor unit body in order to suck the air into the indoor unit body, characterised in that the opening of the air cleaner is opposed to the suction port and provided in an upper surface of the air cleaner in order to allow the air to flow into the air cleaner from the suction port.
A wireless communication device comprising: a processing unit that generates a protocol data unit, PDU, that has valid sequence information specifying which sequence numbers are valid sequence numbers, where a valid sequence number is a sequence number associated with a data unit that can be resent; and a communication unit that transmits a multicast communication comprising the PDU generated by the processing unit, wherein the valid sequence information is generated separately for each frame type of the PDU. a processing unit that generates a protocol data unit, PDU, that has valid sequence information specifying which sequence numbers are valid sequence numbers, where a valid sequence number is a sequence number associated with a data unit that can be resent; and a communication unit that transmits a multicast communication comprising the PDU generated by the processing unit, wherein the valid sequence information is generated separately for each frame type of the PDU.
A method for wireless communications for a system in which a subset of resource block, RB, groups are configured for a legacy wireless communication technology having a first transmission time interval, TTI, the first TTI being based on one subframe in duration, wherein each RB group in the subset of RB groups includes one or more RBs, for communication between legacy devices in the first TTI; the method comprising: determining a resource allocation (1000, 1002) for a low latency communication technology having a second TTI, the second TTI being less than one subframe in duration, the resource allocation (1000, 1002) including a plurality of low latency RBs in the subset of RB groups, wherein determining comprises identifying a number of subsets of RB groups based at least in part on a system bandwidth, where at least some RBs within said RB groups being consecutive across system bandwidth; and communicating data over resources in the plurality of low latency RBs, the low latency RBs being based on the second TTI, and the resources being associated with the resource allocation (1000, 1002). determining a resource allocation (1000, 1002) for a low latency communication technology having a second TTI, the second TTI being less than one subframe in duration, the resource allocation (1000, 1002) including a plurality of low latency RBs in the subset of RB groups, wherein determining comprises identifying a number of subsets of RB groups based at least in part on a system bandwidth, where at least some RBs within said RB groups being consecutive across system bandwidth; and communicating data over resources in the plurality of low latency RBs, the low latency RBs being based on the second TTI, and the resources being associated with the resource allocation (1000, 1002).
A bonnet assembly, configured for assembly to a body assembly, the bonnet assembly comprising: a handwheel; a bonnet housing, wherein the bonnet housing defines a cylindrical column; a load plate within the cylindrical column; a spring washer within the cylindrical column, wherein a first side of the spring washer is in contact with the load plate; and a transition pressure ring, wherein the transition pressure ring includes a top portion and a bottom portion, the top portion has a circular cross section and is in contact with a second side of the spring washer, the top portion includes an O-ring configured to form a seal between an outer edge of the top portion and walls of the housing of the bonnet assembly that define the cylindrical column, the bottom portion includes a bead on a bottom surface of the bottom portion, the bead projects out from the bottom surface of the bottom portion, characterized in that the bead has a congruent shape and size as a body exterior seal periphery of the body assembly, and the body exterior seal periphery of the body assembly is not congruent to the circular cross section of the top portion. a handwheel; a bonnet housing, wherein the bonnet housing defines a cylindrical column; a load plate within the cylindrical column; a spring washer within the cylindrical column, wherein a first side of the spring washer is in contact with the load plate; and a transition pressure ring, wherein the transition pressure ring includes a top portion and a bottom portion, the top portion has a circular cross section and is in contact with a second side of the spring washer, the top portion includes an O-ring configured to form a seal between an outer edge of the top portion and walls of the housing of the bonnet assembly that define the cylindrical column, the bottom portion includes a bead on a bottom surface of the bottom portion, the bead projects out from the bottom surface of the bottom portion, characterized in that the bead has a congruent shape and size as a body exterior seal periphery of the body assembly, and the body exterior seal periphery of the body assembly is not congruent to the circular cross section of the top portion.
steel, with the following alloying components: 0.38 - 0.45 wt.% C; 0,6 - 0,9 wt.% Mn max 0,25 wt.% P max. 0,035 wt.% S 0,9 - 1,2 wt.% Cr 0,15 - 0,30 wt.% Mo 4 wt.% Si 0,04 wt.% Ti 0,005 wt.% B a remainder of iron. 0.38 - 0.45 wt.% C; 0,6 - 0,9 wt.% Mn max 0,25 wt.% P max. 0,035 wt.% S 0,9 - 1,2 wt.% Cr 0,15 - 0,30 wt.% Mo 4 wt.% Si 0,04 wt.% Ti 0,005 wt.% B
A computer-implemented method for simulating the realization of lighting effects in an environment, the method comprising the steps of: receiving environment data; receiving user input indicative of a plurality of desired lighting effects and their placement relative to the environment; receiving data indicative of installable devices for providing lighting effects; generating at least one implementation option to realize each desired lighting effect on the basis of the environment data, the input indicative of a plurality of desired lighting effects and the data indicative of installable devices; selecting, for each desired lighting effect having more than one implementation option, one implementation option; and generating, based on the environment data and the selected implementation options, realization data. receiving environment data; receiving user input indicative of a plurality of desired lighting effects and their placement relative to the environment; receiving data indicative of installable devices for providing lighting effects; generating at least one implementation option to realize each desired lighting effect on the basis of the environment data, the input indicative of a plurality of desired lighting effects and the data indicative of installable devices; selecting, for each desired lighting effect having more than one implementation option, one implementation option; and generating, based on the environment data and the selected implementation options, realization data.
Cord tensioner for tensioning a cord of a shading unit, especially pleated or (Roman) blinds, with a spring and a deflecting means attached to at least one end of the spring as well as another deflecting means for the cord, characterised in that the deflecting means (13, 14) in a first position project over a housing in such a way that the cord with a bight can be wrapped around the deflecting means (13, 14) without difficulty and in a second position with the upper side of their covers (15, 16) fit flush with the housing, such that the cord is secured against slipping from the deflecting means (13, 14).
A method of reconstructing a tomography image of an object (130a, 130b) from a plurality of projection images generated by scanning the object in a plurality of projection directions depending on a location of a moving radiation source relative to a detector detecting a signal which is generated as the radiation emitted from the radiation source passes through the object (130a, 130b), the method comprising: determining (901, 1001) whether a truncated portion of the object is present in each of the plurality of projection images; reconstructing (902, 1002) a first reconstruction image by using at least one projection image, in which a truncated portion of the object is absent, based on a result of the determining; calculating (903, 1003) projection data for the first reconstruction image, by using the first reconstruction image; estimating truncation data representing a truncated portion of the object with respect to at least one of truncated projection images, in which the truncated portion of the object is present, by using the calculated projection data; correcting the estimated truncation data by subtracting a sum of intensity values of the truncated projection image corresponding to the estimated truncation data from a sum of intensity values of the at least one projection image in which the truncated portion of the object is absent, to calculate an amount of energy of the truncated portion of the object (130a, 130b) and use the amount of energy to correct scaling errors in the estimated truncation data; and reconstructing (904, 1006) a tomography image of the object by using the corrected truncation data. determining (901, 1001) whether a truncated portion of the object is present in each of the plurality of projection images; reconstructing (902, 1002) a first reconstruction image by using at least one projection image, in which a truncated portion of the object is absent, based on a result of the determining; calculating (903, 1003) projection data for the first reconstruction image, by using the first reconstruction image; estimating truncation data representing a truncated portion of the object with respect to at least one of truncated projection images, in which the truncated portion of the object is present, by using the calculated projection data; correcting the estimated truncation data by subtracting a sum of intensity values of the truncated projection image corresponding to the estimated truncation data from a sum of intensity values of the at least one projection image in which the truncated portion of the object is absent, to calculate an amount of energy of the truncated portion of the object (130a, 130b) and use the amount of energy to correct scaling errors in the estimated truncation data; and reconstructing (904, 1006) a tomography image of the object by using the corrected truncation data.
An oral care composition comprising arginine for use in a method of reducing total pathogenic oral bacteria load within an individual's oral cavity wherein pathogenic oral bacteria are Porphyromonas gingiva / is, Prevotella intermedia, Streptococcus mutans and Streptococcus sobrinus, and the method comprises the step of: applying 1-50 mg of arginine to the oral cavity.
A method of producing a compound of Formula 3: comprising: (a) reacting a compound of Formula 1 with a compound of Formula 2 to form the compound of Formula 3: wherein each R 1 is (C 1-4)alkyl. (a) reacting a compound of Formula 1 with a compound of Formula 2 to form the compound of Formula 3: wherein each R 1 is (C 1-4)alkyl.
An implant fixture storage case, comprising: an implant fixture holding member for holding an implant fixture and having a length that corresponds to a nominal length of the implant fixture to be held; a storage main body on which a value related to the length of the implant fixture is displayed, the storage main body holding the implant fixture holding member thereinside and having at least one part being transparent, characterized by a position display means provided on the storage main body, wherein the position of the position display means is determined based on the length of the implant fixture holding member; the position of the position display means and the position of the end portion on the bottom side of the implant fixture holding member are configured to be identical to each other seen from the front, and the end portion of the implant fixture holding member and the position display means are viewable at the same time. an implant fixture holding member for holding an implant fixture and having a length that corresponds to a nominal length of the implant fixture to be held; a storage main body on which a value related to the length of the implant fixture is displayed, the storage main body holding the implant fixture holding member thereinside and having at least one part being transparent, characterized by a position display means provided on the storage main body, wherein the position of the position display means is determined based on the length of the implant fixture holding member; the position of the position display means and the position of the end portion on the bottom side of the implant fixture holding member are configured to be identical to each other seen from the front, and the end portion of the implant fixture holding member and the position display means are viewable at the same time.
Control device comprising • a housing, • a control lever comprising an annular magnet with axial magnetization parallel to a longitudinal axis of said lever, • first magnetic sensors arranged according to a circular distribution relative to the longitudinal axis, said magnetic sensors being placed facing the annular magnet at a first detection distance, a pivoting of the control lever in a direction reducing the first detection distance so that the first magnetic sensors detect a variation of magnetic flux of the annular magnet linked to a displacement of said lever, characterized in that the control lever comprises a second magnet with reverse axial magnetization relative to the axial magnetization of the annular magnet, said second magnet being positioned at the centre of the annular magnet so that a magnetic flux between the two magnets (8, 9) is maximum. • a housing, • a control lever comprising an annular magnet with axial magnetization parallel to a longitudinal axis of said lever, • first magnetic sensors arranged according to a circular distribution relative to the longitudinal axis, said magnetic sensors being placed facing the annular magnet at a first detection distance, a pivoting of the control lever in a direction reducing the first detection distance so that the first magnetic sensors detect a variation of magnetic flux of the annular magnet linked to a displacement of said lever, characterized in that the control lever comprises a second magnet with reverse axial magnetization relative to the axial magnetization of the annular magnet, said second magnet being positioned at the centre of the annular magnet so that a magnetic flux between the two magnets (8, 9) is maximum.
A method for determining the abundance of a target nucleic acid in a single cell, the method comprising: contacting a fixed and permeabilized cell with at least one pair of SNAIL oligonucleotides under conditions permissive for specific hybridization, wherein the pair of oligonucleotides comprises a Splint Primer Oligonucleotide and a Padlock Oligonucleotide, wherein each of SPO and PO comprise a first complementarity region (CR1 and CR1', respectively) complementary to directly adjacent sequences on the target nucleic acid; and each of SPO and PO further comprise a second complementarity region (CR2 and CR2') located adjacent to CR1 or CR1' respectively; wherein the CR2' on the PO is a split region such that the 5' and the 3' ends of PO hybridize to CR2 of the SPO such that after hybridization the 5' and the 3' ends of PO are positioned in a butt head-to-end fashion where the 5' and the 3' ends of PO are positioned directly adjacent to one another; washing the cell free of unbound oligonucleotides; contacting the cell with ligase wherein the PO is ligated at the 5' and 3' ends in CR2' to generate a closed circle; performing rolling circle amplification using the PO as a template and SPO as a primer for a polymerase; contacting the cell with a detection probe under conditions permissive for specific hybridization; and detecting the level of bound detection probes to determine the abundance of the target nucleic acid. contacting a fixed and permeabilized cell with at least one pair of SNAIL oligonucleotides under conditions permissive for specific hybridization, wherein the pair of oligonucleotides comprises a Splint Primer Oligonucleotide and a Padlock Oligonucleotide, wherein each of SPO and PO comprise a first complementarity region (CR1 and CR1', respectively) complementary to directly adjacent sequences on the target nucleic acid; and each of SPO and PO further comprise a second complementarity region (CR2 and CR2') located adjacent to CR1 or CR1' respectively; wherein the CR2' on the PO is a split region such that the 5' and the 3' ends of PO hybridize to CR2 of the SPO such that after hybridization the 5' and the 3' ends of PO are positioned in a butt head-to-end fashion where the 5' and the 3' ends of PO are positioned directly adjacent to one another; washing the cell free of unbound oligonucleotides; contacting the cell with ligase wherein the PO is ligated at the 5' and 3' ends in CR2' to generate a closed circle; performing rolling circle amplification using the PO as a template and SPO as a primer for a polymerase; contacting the cell with a detection probe under conditions permissive for specific hybridization; and detecting the level of bound detection probes to determine the abundance of the target nucleic acid.
Electrode boiler with electrodes unit comprising: a) a case; and b) multiple electrodes in the form of fastened inside the case rod electrodes; wherein the electrodes have longitudinal axes not coinciding with the case longitudinal axis; wherein the electrodes longitudinal axes do not coincide with the case transverse axis; wherein the electrodes have external terminals brought out from the case outside; characterized in that the electrodes are arranged non-symmetrically relative to the case symmetry axes and to each other. a) a case; and b) multiple electrodes in the form of fastened inside the case rod electrodes; wherein the electrodes have longitudinal axes not coinciding with the case longitudinal axis; wherein the electrodes longitudinal axes do not coincide with the case transverse axis; wherein the electrodes have external terminals brought out from the case outside;
A computer-implemented method for processing an image, the method comprising: receiving an image to be processed by a first machine learning model, the image comprising metadata; estimating, using a second machine learning model, numerical physical information associated with how the received image was captured from the received image; extracting, using the second machine learning model, numerical physical information associated with how the received image was captured from the metadata of the received image; determining whether differences between the value of the estimated numerical physical information and the value of the extracted numerical physical information are below a threshold; and applying, only when the differences between the value of the estimated numerical physical information and the value of the extracted numerical physical information are below a threshold, the first machine learning model to the received image. receiving an image to be processed by a first machine learning model, the image comprising metadata; estimating, using a second machine learning model, numerical physical information associated with how the received image was captured from the received image; extracting, using the second machine learning model, numerical physical information associated with how the received image was captured from the metadata of the received image; determining whether differences between the value of the estimated numerical physical information and the value of the extracted numerical physical information are below a threshold; and applying, only when the differences between the value of the estimated numerical physical information and the value of the extracted numerical physical information are below a threshold, the first machine learning model to the received image.