mhurhangee/patent-ind-claim-en huggingface dataset:
A liquefied gas fuel feeding system comprising: - a liquefied gas container configured to store liquefied gas and gaseous gas in cryogenic circumstances, - a first fuel passage opening into an ullage space (12.2) of the gas container , - a second fuel passage opening into a bottom section (12.1) of the gas container and provided with a controllable pump , - at least two fuel delivery passages (28.1, 28.2, ... 28.N) each of which being configured to convey gas to a single gas consumer of at least two gas consumers (18.1, 18.2, ... 18.N), characterized in that the liquefied gas fuel feeding system comprises - a valve assembly configured to connect the first fuel passage or the second fuel passage alternatively to each one of the at least two fuel delivery passages (28.1, 28.2, ... 28.N). - a liquefied gas container configured to store liquefied gas and gaseous gas in cryogenic circumstances, - a first fuel passage opening into an ullage space (12.2) of the gas container , - a second fuel passage opening into a bottom section (12.1) of the gas container and provided with a controllable pump , - at least two fuel delivery passages (28.1, 28.2, ... 28.N) each of which being configured to convey gas to a single gas consumer of at least two gas consumers (18.1, 18.2, ... 18.N), characterized in that the liquefied gas fuel feeding system comprises - a valve assembly configured to connect the first fuel passage or the second fuel passage alternatively to each one of the at least two fuel delivery passages (28.1, 28.2, ... 28.N).
A flat gate system serving as an automatic ticket gate, wherein the system comprises a pass determination device, a ticket gate passage including a plurality of floor panels and an authentication area , and an authentication device carried by a user, wherein each floor panel is a rectangular plate tightly laid so that a floor surface of the ticket gate passage is constituted by the plurality of floor panels , wherein surfaces of the plurality of floor panels arranged at predetermined positions on the ticket gate passage define the authentication area , wherein display units are provided on both sides in the width direction of each of the floor panels constituting the authentication area , wherein each display unit includes a plurality of light emitting diodes arranged at regular intervals along a length direction of the corresponding floor panel at each of both sides in the width direction of the corresponding floor panel , and wherein the pass determination device comprises: a receiving unit configured for receiving authentication information from the authentication device ; a determining unit configured for determining whether or not to permit the user to pass on a basis of the authentication information received by the receiving unit ; and the display units ; wherein the display units are configured for displaying a position of the authentication area in a first display mode from before the user enters the authentication area , the authentication area being an area through which the user having the authentication device is to pass so that an authentication process based on the authentication information of the authentication device is performed by the determining unit . a receiving unit configured for receiving authentication information from the authentication device ; a determining unit configured for determining whether or not to permit the user to pass on a basis of the authentication information received by the receiving unit ; and the display units ; wherein the display units are configured for displaying a position of the authentication area in a first display mode from before the user enters the authentication area , the authentication area being an area through which the user having the authentication device is to pass so that an authentication process based on the authentication information of the authentication device is performed by the determining unit .
A chain for use in a newel of a passenger conveyor, the chain comprising: a plurality of chain units , each chain unit having a male connector at one end and a female connector at an opposite end, the chain units being detachably linked together in series by engagement of the female connector of one chain unit with the male connector of an adjacent chain unit ; wherein each chain unit comprises a frame having a first end and a second end, and at least one roller bearing supported by the frame , and wherein the male connector is adjacent a first end of the frame and the female connector is adjacent a second end of the frame ; characterized in that the male connector is a hook formed in a base portion of the frame and the female connector is a loop pivotally connected to the frame . a plurality of chain units , each chain unit having a male connector at one end and a female connector at an opposite end, the chain units being detachably linked together in series by engagement of the female connector of one chain unit with the male connector of an adjacent chain unit ; wherein each chain unit comprises a frame having a first end and a second end, and at least one roller bearing supported by the frame , and wherein the male connector is adjacent a first end of the frame and the female connector is adjacent a second end of the frame ; characterized in that the male connector is a hook formed in a base portion of the frame and the female connector is a loop pivotally connected to the frame .
A tubularly knitted stent or stent graft for placement in a lumen or body passage, the sten or stent graft being compressible and having a compressed and a non-compressed outer diameter , the stent or stent graft being built from a repeating knitting pattern along a longitudinal axis of the tubularly knitted stent, the knitting pattern comprising a sequence of bridges and loops that extend around the stent's or stent graft's circumference, each knitted loop being formed of a loop head and a pair of loop legs, the loop head connecting the loop legs, and each bridge connecting the loop legs of two adjoining knitted loops in a row of knitted loops, wherein a loop width of each knitted loop is defined as the longest distance between the pair of loop legs where connected to the loop head, wherein at least one knitted loop is characterized by a loop width to non-compressed outer diameter ratio larger than 0.2.
A fluid filter assembly comprising: an outer housing , a filter element including a face , and a filter portion extending from the face , the housing having an inlet and an outlet, and a spring biasing said face against a housing portion at said inlet; a pressure drop across said filter assembly biasing said filter element against a force of said spring such that if the pressure drop exceeds the spring force, the filter element can move to a bypass position; characterized in that said face has a non-cylindrical outer periphery; and wherein said non-cylindrical shape includes a plurality of flats . an outer housing , a filter element including a face , and a filter portion extending from the face , the housing having an inlet and an outlet, and a spring biasing said face against a housing portion at said inlet; a pressure drop across said filter assembly biasing said filter element against a force of said spring such that if the pressure drop exceeds the spring force, the filter element can move to a bypass position; characterized in that said face has a non-cylindrical outer periphery; and wherein said non-cylindrical shape includes a plurality of flats .
A buffered antibody formulation, comprising from 15 mg/ml to 35 mg/ml of an antibody comprising a heavy chain comprising the amino acid sequence of SEQ ID NO: 1 and a light chain comprising the amino acid sequence of SEQ ID NO: 2, a buffer comprising from 5 mM to 25 mM of sodium acetate, from 150 mM to 201 mM of sucrose, and from 0.03% (v/v) to 0.05% (v/v) of polysorbate 20, wherein the antibody formulation has a pH of from 5.6 to 5.8, wherein the antibody formulation is stable for at least 18 months when stored under refrigerated conditions at 5 °C.
A wear member stabilization system for use with an excavation implement , the system comprising: a wear member having recesses formed therein, the recesses being on opposing sides of an excavator lip receiving slot in the wear member ; and an excavator lip , wherein stabilization abutments protrude outwardly beyond outermost surfaces of respective opposing sides of the excavator lip , wherein the stabilization abutments are positioned adjacent a forward end of the excavator lip , wherein each recess receives therein a respective stabilization abutment , and characterized in that the stabilization abutments contact lateral sides of the recesses and thereby limit lateral movement of the wear member relative to the excavator lip . a wear member having recesses formed therein, the recesses being on opposing sides of an excavator lip receiving slot in the wear member ; and an excavator lip , wherein stabilization abutments protrude outwardly beyond outermost surfaces of respective opposing sides of the excavator lip , wherein the stabilization abutments are positioned adjacent a forward end of the excavator lip , wherein each recess receives therein a respective stabilization abutment , and characterized in that the stabilization abutments contact lateral sides of the recesses and thereby limit lateral movement of the wear member relative to the excavator lip .
A method of detecting common path distortion, CPD, by synchronous capture of a forward signal and a related actual CPD signal at a remote physical layer, PHY, device , the remote PHY device being coupled between a headend and a coaxial cable plant of a hybrid-fiber coax, HFC, network and including a forward signal transmitter , a return signal receiver , and a diplexer having forward and return legs , a physical forward path being defined between the forward signal transmitter and the forward leg and a physical return path being defined between the return signal receiver and the return leg , the forward signal transmitter transmitting the forward signal to the coaxial cable plant via the physical forward path and the forward leg of the diplexer , a portion of the forward signal leaking through the return leg of the diplexer and traveling over the physical return path to the return signal receiver , the actual CPD signal being generated by an interaction between the forward signal and a CPD source in the coaxial cable plant , the forward signal propagating from the remote PHY device to the CPD source and the actual CPD signal propagating from the CPD source to the remote PHY device all within a round-trip interval, said method comprising the steps of: a) operating the return signal receiver of the remote PHY device to capture the actual CPD signal and the leaked portion of the forward signal by configuring the return signal receiver of the remote PHY device to capture a range of frequencies of the forward signal spectrum; b) transmitting to the headend of the HFC network the actual CPD signal and the leaked portion of the forward signal captured in step a); c) at the headend or a device communicating with the headend , generating from the leaked portion of the forward signal a reference CPD signal which substantially simulates the actual CPD signal; d) performing a cross-correlation of the reference and the actual CPD signals to produce a correlation peak having a time delay corresponding to the round-trip interval; and e) detecting the actual CPD signal from the correlation peak. a) operating the return signal receiver of the remote PHY device to capture the actual CPD signal and the leaked portion of the forward signal by configuring the return signal receiver of the remote PHY device to capture a range of frequencies of the forward signal spectrum; b) transmitting to the headend of the HFC network the actual CPD signal and the leaked portion of the forward signal captured in step a); c) at the headend or a device communicating with the headend , generating from the leaked portion of the forward signal a reference CPD signal which substantially simulates the actual CPD signal; d) performing a cross-correlation of the reference and the actual CPD signals to produce a correlation peak having a time delay corresponding to the round-trip interval; and e) detecting the actual CPD signal from the correlation peak.
A head-up display device comprising: a display that emits light to form a display image; a light separator being an optical member that reflects light emitted from the display ; a first optical member that reflects light reflected off the light separator ; and one or more second optical members that reflect light transmitted through the light separator after being reflected off the first optical member , or through which the light transmitted through the light separator is transmitted, to project a virtual image ; wherein the light separator reflects light emitted from the display toward the first optical member and allows image light incident from the first optical member to be transmitted, characterized by an adjuster that adjusts a distance between the first optical member and the light separator to adjust a projection distance of the virtual image . a display that emits light to form a display image; a light separator being an optical member that reflects light emitted from the display ; a first optical member that reflects light reflected off the light separator ; and one or more second optical members that reflect light transmitted through the light separator after being reflected off the first optical member , or through which the light transmitted through the light separator is transmitted, to project a virtual image ; wherein the light separator reflects light emitted from the display toward the first optical member and allows image light incident from the first optical member to be transmitted, characterized by an adjuster that adjusts a distance between the first optical member and the light separator to adjust a projection distance of the virtual image .
A method in a terminal device, comprising: determining a preamble to be transmitted to a network device on a random access occasion; determining a resource for transmitting a Physical Uplink Shared Channel, PUSCH, based on the random access occasion, comprising: - determining a time domain resource for the PUSCH based on a mapping between the preamble and: -- a PUSCH mapping type, -- an offset relative to a time reference dependent on the random access occasion, -- a start symbol number of the PUSCH within a slot, and -- a duration of the PUSCH in the slot; and transmitting , to the network device, the preamble on the random access occasion and the PUSCH on the resource, in a random access message being a message A in a two-step random access procedure. determining a preamble to be transmitted to a network device on a random access occasion; determining a resource for transmitting a Physical Uplink Shared Channel, PUSCH, based on the random access occasion, comprising: - determining a time domain resource for the PUSCH based on a mapping between the preamble and: -- a PUSCH mapping type, -- an offset relative to a time reference dependent on the random access occasion, -- a start symbol number of the PUSCH within a slot, and -- a duration of the PUSCH in the slot; and - determining a time domain resource for the PUSCH based on a mapping between the preamble and: -- a PUSCH mapping type, -- an offset relative to a time reference dependent on the random access occasion, -- a start symbol number of the PUSCH within a slot, and -- a duration of the PUSCH in the slot; and -- a PUSCH mapping type, -- an offset relative to a time reference dependent on the random access occasion, -- a start symbol number of the PUSCH within a slot, and -- a duration of the PUSCH in the slot; and transmitting , to the network device, the preamble on the random access occasion and the PUSCH on the resource, in a random access message being a message A in a two-step random access procedure.
A biomass torrefaction system, comprising: an inlet to receive biomass particles; a reactor drum configured to rotate about an axis of rotation, the reactor drum having a plurality of flights positioned therein at a plurality of locations along a longitudinal length of the reactor drum, said flights being secured to the reactor drum; a heat source upstream of the reactor drum to heat gas contained in the system to a temperature sufficient to torrefy the biomass particles during operation; a fan device coupled to the system to create, when the system is in operation, a heated gas stream through the reactor drum sufficient to intermittently transport the biomass particles along the longitudinal length of the reactor drum as the biomass particles are lifted by the flights and showered through the heated gas stream as the reactor drum rotates; and gas ducts coupled to at least the reactor drum, heat source and fan device to recirculate at least a portion of gas exiting the reactor drum back to the heat source to reheat the gas for reintroduction into the reactor drum; wherein the fan device is configured to adjust the speed and volume of the heated gas stream so as to control the residence time of the particles within the reactor drum; and the lifting flights are configured to interoperate with the heated gas stream to classify the biomass particles according to particle density and/or size, so as to move relatively denser particles with respect to similarly sized particles and relatively larger particles with respect to particles having similar densities through the reactor drum more slowly. an inlet to receive biomass particles; a reactor drum configured to rotate about an axis of rotation, the reactor drum having a plurality of flights positioned therein at a plurality of locations along a longitudinal length of the reactor drum, said flights being secured to the reactor drum; a heat source upstream of the reactor drum to heat gas contained in the system to a temperature sufficient to torrefy the biomass particles during operation; a fan device coupled to the system to create, when the system is in operation, a heated gas stream through the reactor drum sufficient to intermittently transport the biomass particles along the longitudinal length of the reactor drum as the biomass particles are lifted by the flights and showered through the heated gas stream as the reactor drum rotates; and gas ducts coupled to at least the reactor drum, heat source and fan device to recirculate at least a portion of gas exiting the reactor drum back to the heat source to reheat the gas for reintroduction into the reactor drum; wherein the fan device is configured to adjust the speed and volume of the heated gas stream so as to control the residence time of the particles within the reactor drum; and the lifting flights are configured to interoperate with the heated gas stream to classify the biomass particles according to particle density and/or size, so as to move relatively denser particles with respect to similarly sized particles and relatively larger particles with respect to particles having similar densities through the reactor drum more slowly.
A modular apparatus having internal load sensing, comprising: sensing modules and each sensing module having external surfaces with certain cross-section dimensions that are the same, and comprising one or more strain gages ; and structures wherein each structure contains one or more cavities having internal surfaces with the certain cross-section dimensions to contain and hold the sensing modules; and wherein: the structures hold the sensing modules in the one or more cavities in a manner that permits effects of a force applied on the structure to be transferred to the strain gages; the force applied on a structure is detected by the one or more strain gages of a sensing module held by the structure; and the one or more strain gages have an electrical resistance that changes with a variation of a magnitude of the force applied to the structure, wherein the sensing modules have the same external dimensions and have various kinds of strain gages designed for detecting different ranges of force applied to the structures containing the sensing modules, respectively and the sensing modules are removable from the structures without physically altering the structure. sensing modules and each sensing module having external surfaces with certain cross-section dimensions that are the same, and comprising one or more strain gages ; and structures wherein each structure contains one or more cavities having internal surfaces with the certain cross-section dimensions to contain and hold the sensing modules; and the structures hold the sensing modules in the one or more cavities in a manner that permits effects of a force applied on the structure to be transferred to the strain gages; the force applied on a structure is detected by the one or more strain gages of a sensing module held by the structure; and the one or more strain gages have an electrical resistance that changes with a variation of a magnitude of the force applied to the structure, the sensing modules have the same external dimensions and have various kinds of strain gages designed for detecting different ranges of force applied to the structures containing the sensing modules, respectively and the sensing modules are removable from the structures without physically altering the structure.
A compound represented by Formula 3-1: wherein, R 1a to R 4a , R 3 , R 6 and R 9 to R 14 are hydrogen, R 4 and R 5 are each independently -(L 2 )r-(Y 2 )s, where r is an integer of 0 to 10 and s is an integer of 1 to 10, L 2 is an arylene group selected from a phenylene group or a naphthalene group, Y 2 is hydrogen; heavy hydrogen; a substituted or unsubstituted arylamine group; a substituted or unsubstituted aryl group selected from a phenyl group, a biphenyl group, a terphenyl group, a phenanthrenyl group, a pyrenyl group, a fluorenyl group, a triphenylene group, or a fluoranthrene group; or a substituted or unsubstituted heterocyclic group comprising one or more of N, O and S atoms selected from a pyridyl group, a triazine group, a benzoxazole group, a benzimidazole group, a benzthiazol group, a benzcarbazole group, a dibenzothiophene group, or a dibenzofuranyl group. the term "substituted or unsubstituted" means that a matter is substituted or unsubstituted by at least one substituent group selected from heavy hydrogen; an alkyl group; an arylamine group; an aryl group selected from a phenyl group, a biphenyl group, a terphenyl group, a naphthyl group; and a fluorenyl group. R 1a to R 4a , R 3 , R 6 and R 9 to R 14 are hydrogen, R 4 and R 5 are each independently -(L 2 )r-(Y 2 )s, where r is an integer of 0 to 10 and s is an integer of 1 to 10, L 2 is an arylene group selected from a phenylene group or a naphthalene group, Y 2 is hydrogen; heavy hydrogen; a substituted or unsubstituted arylamine group; a substituted or unsubstituted aryl group selected from a phenyl group, a biphenyl group, a terphenyl group, a phenanthrenyl group, a pyrenyl group, a fluorenyl group, a triphenylene group, or a fluoranthrene group; or a substituted or unsubstituted heterocyclic group comprising one or more of N, O and S atoms selected from a pyridyl group, a triazine group, a benzoxazole group, a benzimidazole group, a benzthiazol group, a benzcarbazole group, a dibenzothiophene group, or a dibenzofuranyl group. the term "substituted or unsubstituted" means that a matter is substituted or unsubstituted by at least one substituent group selected from heavy hydrogen; an alkyl group; an arylamine group; an aryl group selected from a phenyl group, a biphenyl group, a terphenyl group, a naphthyl group; and a fluorenyl group.