mhurhangee/patent-ind-claim-en huggingface dataset:
An access control system for controlling access to one or more secured areas of a site, comprising: one or more electronic locks located at a site; an electronic programmable key which includes a processor and a non-transitory storage device for storing instructions, wherein execution of the instructions causes the electronic programmable key to: receive an opening code via an input device integrated into the electronic programmable key ; in response to determining that the opening code is valid, activate the electronic programmable key to open the one or more electronic locks ; generate a lock attendance code using a verification function stored on the electronic programmable key , wherein the lock attendance code comprises an encoded string that is decodable to verify engagement of the electronic programmable key with the one or more electronic locks wherein the electronic programmable key includes a display screen and the electronic programmable key is configured to output the lock attendance code on the display screen . one or more electronic locks located at a site; an electronic programmable key which includes a processor and a non-transitory storage device for storing instructions, wherein execution of the instructions causes the electronic programmable key to: receive an opening code via an input device integrated into the electronic programmable key ; in response to determining that the opening code is valid, activate the electronic programmable key to open the one or more electronic locks ; generate a lock attendance code using a verification function stored on the electronic programmable key , wherein the lock attendance code comprises an encoded string that is decodable to verify engagement of the electronic programmable key with the one or more electronic locks receive an opening code via an input device integrated into the electronic programmable key ; in response to determining that the opening code is valid, activate the electronic programmable key to open the one or more electronic locks ; generate a lock attendance code using a verification function stored on the electronic programmable key , wherein the lock attendance code comprises an encoded string that is decodable to verify engagement of the electronic programmable key with the one or more electronic locks wherein the electronic programmable key includes a display screen and the electronic programmable key is configured to output the lock attendance code on the display screen .
An ultrasound imaging system, comprising: an interface coupled to an ultrasound imaging component and configured to receive a plurality of image data frames representative of a subject's body including at least a portion of a lung, each image data frame of the plurality of image data frames comprising a plurality of pixel values representing pixel intensities of an image of the subject's body; a processing component in communication with the interface and configured to: determine a count value metric for each image data frame of the plurality of image data frames by counting a number of the plurality of pixel values in each image data frame that satisfies a threshold; and determine a dynamic air bronchogram (AB) condition of the subject's body based on a variation across the count value metrics of the plurality of image data frames. an interface coupled to an ultrasound imaging component and configured to receive a plurality of image data frames representative of a subject's body including at least a portion of a lung, each image data frame of the plurality of image data frames comprising a plurality of pixel values representing pixel intensities of an image of the subject's body; a processing component in communication with the interface and configured to: determine a count value metric for each image data frame of the plurality of image data frames by counting a number of the plurality of pixel values in each image data frame that satisfies a threshold; and determine a dynamic air bronchogram (AB) condition of the subject's body based on a variation across the count value metrics of the plurality of image data frames. determine a count value metric for each image data frame of the plurality of image data frames by counting a number of the plurality of pixel values in each image data frame that satisfies a threshold; and determine a dynamic air bronchogram (AB) condition of the subject's body based on a variation across the count value metrics of the plurality of image data frames.
A resin composition containing the following (A), (B), (C), (D), and (E): (A) a thermoplastic resin which forms a liquid crystal phase at 190°C or lower, measured as indicated in the description, and contains as a main chain structure, 40 to 60% by mol of a unit (i) having a biphenyl group represented by General Formula 5 to 40% by mol of a unit (ii) represented by General Formula -CO-R 3 -CO- (wherein R 3 represents a linear divalent substituent group which has main chain atom number of 4 to 12 and may contain a branch), and 5 to 40% by mol of a unit (iii) represented by General Formula -CO-R 4 -CO- (wherein R 4 represents a linear divalent substituent group which has main chain atom number of 8 to 26 and may contain a branch, in which the main chain atom number is different from that of R 3 ) ( to total 100% by mol), (B) a curable resin, (C) a curing agent, (D) an elastomer, and (E) an inorganic filler. (A) a thermoplastic resin which forms a liquid crystal phase at 190°C or lower, measured as indicated in the description, and contains as a main chain structure, 40 to 60% by mol of a unit (i) having a biphenyl group represented by General Formula 5 to 40% by mol of a unit (ii) represented by General Formula -CO-R 3 -CO- (wherein R 3 represents a linear divalent substituent group which has main chain atom number of 4 to 12 and may contain a branch), and 5 to 40% by mol of a unit (iii) represented by General Formula -CO-R 4 -CO- (wherein R 4 represents a linear divalent substituent group which has main chain atom number of 8 to 26 and may contain a branch, in which the main chain atom number is different from that of R 3 ) ( to total 100% by mol), 40 to 60% by mol of a unit (i) having a biphenyl group represented by General Formula 5 to 40% by mol of a unit (ii) represented by General Formula -CO-R 3 -CO- (wherein R 3 represents a linear divalent substituent group which has main chain atom number of 4 to 12 and may contain a branch), and 5 to 40% by mol of a unit (iii) represented by General Formula -CO-R 4 -CO- (wherein R 4 represents a linear divalent substituent group which has main chain atom number of 8 to 26 and may contain a branch, in which the main chain atom number is different from that of R 3 ) ( to total 100% by mol), (B) a curable resin, (C) a curing agent, (D) an elastomer, and (E) an inorganic filler.
A gaseous matter capture system, comprising: (i) at least one aerial unit configured to be airborne; (ii) at least one non-aerial unit ; (iii) at least one gas separation means configured to be carried by the aerial unit wherein the at least one gas separation means is operable while the aerial unit is airborne at an altitude range of 5-15km and wherein the at least one gas separation means comprises at least one pressure increasing apparatus, wherein the at least one gas separation means is configured to separate at least one designated gaseous matter from the air; (v) storage means configured to be carried by the aerial unit, including at least one compressed gas container, the at least one separated gaseous matter being configured to be stored in the at least one compressed gas container, wherein the at least one compressed gas container comprises guidance means configured to guide the at least one compressed gas container from the aerial unit to the non-aerial unit, and the at least one compressed gas container is configured to be released from the aerial unit and reach the non-aerial unit; (vi) a controller configured to control the system's operation; and (vii) an energy source configured to enable the system's operation. (i) at least one aerial unit configured to be airborne; (ii) at least one non-aerial unit ; (iii) at least one gas separation means configured to be carried by the aerial unit wherein the at least one gas separation means is operable while the aerial unit is airborne at an altitude range of 5-15km and wherein the at least one gas separation means comprises at least one pressure increasing apparatus, wherein the at least one gas separation means is configured to separate at least one designated gaseous matter from the air; (v) storage means configured to be carried by the aerial unit, including at least one compressed gas container, the at least one separated gaseous matter being configured to be stored in the at least one compressed gas container, wherein the at least one compressed gas container comprises guidance means configured to guide the at least one compressed gas container from the aerial unit to the non-aerial unit, and the at least one compressed gas container is configured to be released from the aerial unit and reach the non-aerial unit; (vi) a controller configured to control the system's operation; and (vii) an energy source configured to enable the system's operation.
A method in a wireless device , the method comprising: receiving a physical downlink control channel, PDCCH, from a network node , the PDCCH including downlink control information, DCI, that indicates a set of time and frequency resources allocated for the wireless device to receive a data transmission, wherein the set comprises (i) a first subset of the indicated set of time and frequency resources allocated for the data transmission that overlaps with time and frequency resources in one or more control resource sets, CORESETs, and (ii) a second subset of time and frequency resources from the one or more CORESETs excluded for the data transmission; and receiving the data transmission in the first subset of time and frequency resources allocated for data transmission. receiving a physical downlink control channel, PDCCH, from a network node , the PDCCH including downlink control information, DCI, that indicates a set of time and frequency resources allocated for the wireless device to receive a data transmission, wherein the set comprises (i) a first subset of the indicated set of time and frequency resources allocated for the data transmission that overlaps with time and frequency resources in one or more control resource sets, CORESETs, and (ii) a second subset of time and frequency resources from the one or more CORESETs excluded for the data transmission; and receiving the data transmission in the first subset of time and frequency resources allocated for data transmission.
A glass-based article comprising: a first surface and a second surface opposing the first surface defining a thickness (t); a concentration of a metal oxide that is both non-zero and varies along a thickness range from 0• t to 0.3• t ; a stress profile extending along the thickness (t); an absolute value of surface CS of 600 MPa or greater; a CS layer extending from the first surface to a DOC, wherein the DOC is 0.15• t or greater; and a CT region. a first surface and a second surface opposing the first surface defining a thickness (t); a concentration of a metal oxide that is both non-zero and varies along a thickness range from 0• t to 0.3• t ; a stress profile extending along the thickness (t); an absolute value of surface CS of 600 MPa or greater; a CS layer extending from the first surface to a DOC, wherein the DOC is 0.15• t or greater; and a CT region.
A compound of the formula (V): wherein m is an integer from 0 to 4; n is 1 or 2; R1 and R2 at each instance of m are each independently hydrogen, C1-6alkyl, or C3-6cycloalkyl; R3, R4, R5, R8, and R9 are each independently hydrogen, C1-6alkyl, or C3-6cycloalkyl; or R9 is L3-C(O), or A2; R6 and R7 at each instance of n are each independently hydrogen, C1-6alkyl, or C3-6cycloalkyl, L1 is C5-21 alkyl or C4-20heteroalkyl; L3 is C1-6alkyl or C3-6cycloalkyl; A1 and A2 are each independently a peptide; or A1 is OH; provided that: at least one of A1 and A2 comprises an epitope; and when R9 is not A2, A1 is a peptide; and wherein any alkyl, cycloalkyl or heteroalkyl present in any of R1, R2, R4, R5, R6, R7, R8, R9, L1, and L3 and any cycloalkyl in R3 is optionally substituted with one or more optional substituents independently selected from the group consisting of halo, CN, NO 2 , OH, NH 2 , NH(C1-6alkyl), N(C1-6alkyl)(C1-6alkyl), C1-6haloalkyl, C1-6haloalkoxy, C(O)NH 2 , C(O)NH(C1-6alkyl), C(O)N(C1-6alkyl)(C1-6alkyl), SO2(C1-6alkyl), O(C1-6alkyl), S(C1-6alkyl), S(O)(C1-6alkyl), C(O)(C1-6alkyl), and C1-6aliphatic;or a pharmaceutically acceptable salt or solvate thereof. m is an integer from 0 to 4; n is 1 or 2; R1 and R2 at each instance of m are each independently hydrogen, C1-6alkyl, or C3-6cycloalkyl; R3, R4, R5, R8, and R9 are each independently hydrogen, C1-6alkyl, or C3-6cycloalkyl; or R9 is L3-C(O), or A2; R6 and R7 at each instance of n are each independently hydrogen, C1-6alkyl, or C3-6cycloalkyl, L1 is C5-21 alkyl or C4-20heteroalkyl; L3 is C1-6alkyl or C3-6cycloalkyl; A1 and A2 are each independently a peptide; or A1 is OH; provided that: at least one of A1 and A2 comprises an epitope; and when R9 is not A2, A1 is a peptide; and at least one of A1 and A2 comprises an epitope; and when R9 is not A2, A1 is a peptide; and
A system for selectively restricting motion of an articulable joint , the system comprising: a base having a first portion configured to be positioned at a first side of the articulable joint and a second portion configured to be positioned at a second side of the articulable joint; a clutch mechanism comprising a flexible portion (212; 304) having a first end coupled to the first portion of the base and a second end coupled to the second portion of the base; and a guide (222; 700; 800; 900) coupled to the base , the guide comprising a support surface that supports the flexible portion (212; 304) between the first end and the second end as the flexible portion (212; 304) moves during articulation of the articulable joint, the guide comprising a first face comprising a first opening , a second face comprising a second opening , and the support surface extending between the first opening and the second opening , characterised by the second opening being angularly offset from the first opening by an angle, the support surface of the guide enabling an angular transition of the flexible portion in a dimension transverse to a travel direction of the flexible portion (212; 304) as a function of distance along the travel direction. a base having a first portion configured to be positioned at a first side of the articulable joint and a second portion configured to be positioned at a second side of the articulable joint; a clutch mechanism comprising a flexible portion (212; 304) having a first end coupled to the first portion of the base and a second end coupled to the second portion of the base; and a guide (222; 700; 800; 900) coupled to the base , the guide comprising a support surface that supports the flexible portion (212; 304) between the first end and the second end as the flexible portion (212; 304) moves during articulation of the articulable joint, the guide comprising a first face comprising a first opening , a second face comprising a second opening , and the support surface extending between the first opening and the second opening , characterised by the second opening being angularly offset from the first opening by an angle, the support surface of the guide enabling an angular transition of the flexible portion in a dimension transverse to a travel direction of the flexible portion (212; 304) as a function of distance along the travel direction.
A user equipment, UE, comprising: at least one processor configured to: receive an indicator extending an area scope of system information received by the UE from cell level to multiple cells, the system information transmitted by a wireless access node in a source cell, and the indicator indicating system information common across the multiple cells; reselect to a second cell among the multiple cells configured to transmit further system information; and read and store only said further system information not identified by the area scope extending indicator to be common with system information previously received by the UE from the source cell. at least one processor configured to: receive an indicator extending an area scope of system information received by the UE from cell level to multiple cells, the system information transmitted by a wireless access node in a source cell, and the indicator indicating system information common across the multiple cells; receive an indicator extending an area scope of system information received by the UE from cell level to multiple cells, the system information transmitted by a wireless access node in a source cell, and the indicator indicating system information common across the multiple cells; reselect to a second cell among the multiple cells configured to transmit further system information; and read and store only said further system information not identified by the area scope extending indicator to be common with system information previously received by the UE from the source cell.
A beam shaping assembly configured to shape a neutron beam (N) comprising: a moderator configured to moderate the neutrons to a preset energy spectrum; a reflecting assembly surrounding the moderator; wherein the reflecting assembly comprises reflectors configured to guide deflected neutrons back to the neutron beam to increase intensity of the neutrons in the preset energy spectrum and a supporting member configured to hold the reflectors; characterized in that the reflecting assembly further comprises a plurality of cells correspondingly forming a plurality of cores , each of the cells forms one of the cores, each of the cores has an accommodating space , the cores are connected to form the supporting member, and the reflectors are correspondingly disposed in the accommodating spaces of the cores. a moderator configured to moderate the neutrons to a preset energy spectrum; a reflecting assembly surrounding the moderator; wherein the reflecting assembly comprises reflectors configured to guide deflected neutrons back to the neutron beam to increase intensity of the neutrons in the preset energy spectrum and a supporting member configured to hold the reflectors; characterized in that the reflecting assembly further comprises a plurality of cells correspondingly forming a plurality of cores , each of the cells forms one of the cores, each of the cores has an accommodating space , the cores are connected to form the supporting member, and the reflectors are correspondingly disposed in the accommodating spaces of the cores.
Network interface (1; 100) comprising: a first network connector ; a second network connector ; and a connector-to-connector bypass unit ; wherein the bypass unit comprises a monostable switching unit for enabling a bypass connection between the first network connector and the second network connector in a stable state and for disabling the bypass connection in a non-stable state; characterized in that the bypass unit further comprises a bistable switching unit , wherein the bistable switching unit is switchable between two stable states, namely a breaking state and a connection state, and breaks, in the breaking state, the bypass connection and, in its connecting state, does not break the bypass connection, wherein the monostable switching unit and the bistable switching unit are arranged in series and wherein the bypass connection is only enabled while - the bistable switching unit is in its connecting state and - the monostable switching unit is in its stable state at the same time. a first network connector ; a second network connector ; and a connector-to-connector bypass unit ; wherein the bypass unit comprises a monostable switching unit for enabling a bypass connection between the first network connector and the second network connector in a stable state and for disabling the bypass connection in a non-stable state; characterized in that the bypass unit further comprises a bistable switching unit , wherein the bistable switching unit is switchable between two stable states, namely a breaking state and a connection state, and breaks, in the breaking state, the bypass connection and, in its connecting state, does not break the bypass connection, wherein the monostable switching unit and the bistable switching unit are arranged in series and wherein the bypass connection is only enabled while - the bistable switching unit is in its connecting state and - the monostable switching unit is in its stable state - the bistable switching unit is in its connecting state and - the monostable switching unit is in its stable state at the same time.
Impression making system for the manufacture of removable dental prostheses comprising: - at least one template with a cavity (1.1, 2.1) capable of housing an impression material and adapting to the jaw of a patient, - positioning means for positioning at least said template in the patient's mouth, the positioning means being formed by at least one tooth row , and - a centric relation marking device which in turn comprises a marker element adjustable in height with a tip to record the optimal position in the vertical dimension; characterized in that the upper template and/or the lower template comprise two guides , which in turn comprise adjustment means to position the centric relation marking device . - at least one template with a cavity (1.1, 2.1) capable of housing an impression material and adapting to the jaw of a patient, - positioning means for positioning at least said template in the patient's mouth, the positioning means being formed by at least one tooth row , and - a centric relation marking device which in turn comprises a marker element adjustable in height with a tip to record the optimal position in the vertical dimension;
A panel assembly having at least a first crush section comprising: a front skin having a front surface , a back surface ; said front skin includes a glass weave layer and a surface finish layer and at least one crush section portion that includes pre-preg stage cuts formed in the glass weave layer so as to make the fibers in the glass weave discontinuous while not affecting the surface finish layer ; characterised in that the panel assembly further comprises: - a core assembly that includes first , second , and third , layers laminated together, and wherein the first layer has a front surface bonded to the back surface of the front skin , a back surface and at least one crush section portion that includes a plurality of scores defined therein, wherein the second layer has a front surface , a back surface and at least one crush section portion comprising a plurality of elongated voids defined therein wherein the front surface of the second layer is bonded to the back surface of the first layer , wherein the third layer has a front surface , a back surface and at least one crush section portion , wherein the front surface of the third layer is bonded to the back surface of the second layer .