mhurhangee/ep-ind-claims huggingface dataset:
A neutron capture therapy system for eliminating amyloid β-protein deposition plaque, comprising: a neutron capture therapy device, and a 10 B-containing compound having a structure shown in structural formula I: wherein, R is a phenylboronic acid group, and the boron in the phenylboronic acid group is 10 B; wherein the 10 B-containing compound is capable of specifically binding to the amyloid β-protein deposition plaque, and the energy generated by action of a neutron beam generated by the neutron capture therapy device on the 10 B-containing compound destroys the amyloid β-protein deposition plaque that is specifically bound to the 10 B-containing compound. a neutron capture therapy device, and a 10 B-containing compound having a structure shown in structural formula I: wherein, R is a phenylboronic acid group, and the boron in the phenylboronic acid group is 10 B; wherein the 10 B-containing compound is capable of specifically binding to the amyloid β-protein deposition plaque, and the energy generated by action of a neutron beam generated by the neutron capture therapy device on the 10 B-containing compound destroys the amyloid β-protein deposition plaque that is specifically bound to the 10 B-containing compound. wherein, R is a phenylboronic acid group, and the boron in the phenylboronic acid group is 10 B; wherein the 10 B-containing compound is capable of specifically binding to the amyloid β-protein deposition plaque, and the energy generated by action of a neutron beam generated by the neutron capture therapy device on the 10 B-containing compound destroys the amyloid β-protein deposition plaque that is specifically bound to the 10 B-containing compound.
A communication control device comprising: a radio communication unit configured to perform radio communication with a terminal apparatus of a primary system using a frequency band of the primary system; and a selecting unit configured to select a subframe in which the frequency band is usable by a secondary system secondarily using the frequency band, the subframe being a unit of time in radio communication, wherein release of communication resources usable by the secondary system is in units of subframes; wherein the radio communication unit is configured to transmit system information of the frequency band including identification information of the selected subframe; and the primary system is corresponding to a first cellular radio communication system and the secondary system is corresponding to a second cellular radio communication system, and the terminal apparatus is configured to perform device-to-device communication with other terminals in the secondary system. a radio communication unit configured to perform radio communication with a terminal apparatus of a primary system using a frequency band of the primary system; and a selecting unit configured to select a subframe in which the frequency band is usable by a secondary system secondarily using the frequency band, the subframe being a unit of time in radio communication, wherein release of communication resources usable by the secondary system is in units of subframes; wherein the radio communication unit is configured to transmit system information of the frequency band including identification information of the selected subframe; and the primary system is corresponding to a first cellular radio communication system and the secondary system is corresponding to a second cellular radio communication system, and the terminal apparatus is configured to perform device-to-device communication with other terminals in the secondary system.
An apparatus for improving the production efficiency of crystallizer bottleneck cooling, includ ing a cooling turntable, a plurality of cooling head assemblies, a cam plate of preform insertion, a cam plate of preform lifting and a cam plate of preform release, wherein a crystallization chain of the crystallizer is set along the outer periphery of the cooling turntable, and a protective sleeve is provided on the chain, and the preform is set in the protective sleeve with the preform neck exposed atout of the protective sleeve, wherein a plurality of cooling head assemblies are mounted on the cooling turntable with its axis as the center, and the cooling head assemblies are set at the top of the protective sleeve, wherein the cooling head assembly includes a n upper mounting plate and a lower mounting plate disposed vertically stacked, and a cooling shaft body, a guide shaft connected to the cooling turntable, wherein the guide rail shaft goes through in turn the upper mounting plate and the lower mounting plate, a spacer is set between the upper mounting plate and the lower mounting plate, wherein the cooling shaft body is fixed to the upper mounting plate, and the shaft head of the cooling shaft body is exposed through the lower mounting plate, wherein a n upper roller is set at least one side of the upper mounting plate parallel to the cooling turntable in the tangential direction, and a lower roller is set at the side of the lower mounting plate at the same side of the upper roller, wherein the cam plate of preform insertion, cam plate of preform lifting and cam plate of preform release are mounted in the rotating path of the cooling head assembly, the cam plate of preform insertion is set at the inlet where the crystallization chain goes into the cooling turntable, the cam plate of preform lifting is set at the outlet where the crystallization chain goes out around the turntable, and rotates in the direction of the cooling turntable rotation, with the inlet as the starting point, characterized in that the cam plate of preform release is set at downstream of the cam plate of preform lifting, and the cam plate of preform insertion lies above the upper roller, the cam plate of preform lifting lies below the lower roller, the cam plate of preform release ies between the upper roller and the lower roller.
A pneumatic brake actuator, comprising: a spring brake actuator comprising a spring chamber and a spring brake pressure chamber; a service brake actuator coupled with said spring brake actuator and comprising a service brake pressure chamber and a pushrod chamber; a valve body comprising an interior surface that defines a channel between said spring chamber and said service brake pressure chamber; and a seal positioned within said channel in said valve body, wherein said seal and said valve body enclose a valve chamber that is not in fluid communication with said spring chamber or said service brake pressure chamber, wherein said seal is moveable between an open position in which fluid can flow through said channel between said spring chamber and said service brake pressure chamber and a closed position in which fluid is blocked from flowing through said channel between said spring chamber and said service brake pressure chamber, wherein said seal is biased to said open position, characterized by said seal comprising a first sealing surface that engages said valve body when said seal is in its closed position to prevent fluid from flowing between said spring chamber and said service brake pressure chamber, and said seal comprising second and third sealing surfaces (194, 198) each of which engages said valve body to seal said valve chamber from said spring chamber and said service brake pressure chamber. a spring brake actuator comprising a spring chamber and a spring brake pressure chamber; a service brake actuator coupled with said spring brake actuator and comprising a service brake pressure chamber and a pushrod chamber; a valve body comprising an interior surface that defines a channel between said spring chamber and said service brake pressure chamber; and a seal positioned within said channel in said valve body, wherein said seal and said valve body enclose a valve chamber that is not in fluid communication with said spring chamber or said service brake pressure chamber, wherein said seal is moveable between an open position in which fluid can flow through said channel between said spring chamber and said service brake pressure chamber and a closed position in which fluid is blocked from flowing through said channel between said spring chamber and said service brake pressure chamber, wherein said seal is biased to said open position, characterized by said seal comprising a first sealing surface that engages said valve body when said seal is in its closed position to prevent fluid from flowing between said spring chamber and said service brake pressure chamber, and said seal comprising second and third sealing surfaces (194, 198) each of which engages said valve body to seal said valve chamber from said spring chamber and said service brake pressure chamber.
Method for controlling an isolated energy network, having the step of communicating an energy withdrawal request and/or an energy storage request between a first isolated unit and a second isolated unit (120, 130), characterized in that the following step is also carried out: selecting the isolated unit, to which a management unit transmits the energy withdrawal request and/or energy storage request, according to a prioritization list, which represents a prioritized ranking of the first isolated unit and the second isolated unit (120, 130), and/or according to a prediction list, which represents a predicted ranking of the first isolated unit and the second isolated unit (120, 130). selecting the isolated unit, to which a management unit transmits the energy withdrawal request and/or energy storage request, according to a prioritization list, which represents a prioritized ranking of the first isolated unit and the second isolated unit (120, 130), and/or according to a prediction list, which represents a predicted ranking of the first isolated unit and the second isolated unit (120, 130).
A control device comprising: a receiving unit that receives a request for image forming processing; and a control unit that, in a case where the receiving unit receives a plurality of requests for image forming processing from a plurality of places, controls a traveling route of an image forming apparatus, wherein the traveling route is determined based on estimated traveling time for the image forming apparatus to travel to the plurality of places and estimated processing time for the image forming apparatus to finish the image forming processing after traveling. a receiving unit that receives a request for image forming processing; and a control unit that, in a case where the receiving unit receives a plurality of requests for image forming processing from a plurality of places, controls a traveling route of an image forming apparatus, wherein the traveling route is determined based on estimated traveling time for the image forming apparatus to travel to the plurality of places and estimated processing time for the image forming apparatus to finish the image forming processing after traveling.
A method of wireless communication performed by a user equipment, UE,, comprising: receiving (302, 410) a downlink communication that includes one or more codepoints indicating a plurality of transmit precoder matrix indicator, TPMI, indices, wherein the one or more codepoints includes a single codepoint, in a Precoding Information and Number of Layers field of the downlink communication, indicating the plurality of TPMI indices; and identifying (304, 420), based at least in part on the one or more codepoints, a first TPMI index, of the plurality of TPMI indices, for configuring a first repetition of a physical uplink shared channel, PUSCH, transmission and a second TPMI index, of the plurality of TPMI indices, for configuring a second repetition of the PUSCH transmission, wherein the PUSCH transmission is a codebook-based PUSCH transmission. receiving (302, 410) a downlink communication that includes one or more codepoints indicating a plurality of transmit precoder matrix indicator, TPMI, indices, wherein the one or more codepoints includes a single codepoint, in a Precoding Information and Number of Layers field of the downlink communication, indicating the plurality of TPMI indices; and identifying (304, 420), based at least in part on the one or more codepoints, a first TPMI index, of the plurality of TPMI indices, for configuring a first repetition of a physical uplink shared channel, PUSCH, transmission and a second TPMI index, of the plurality of TPMI indices, for configuring a second repetition of the PUSCH transmission, wherein the PUSCH transmission is a codebook-based PUSCH transmission.
A medical monitoring device comprising: two or more sensors adapted to sense at least two parameters of a patient, wherein said two or more sensors comprise at least a capnograph and a pulse oximeter; and a computing unit adapted to compute a unit-less index-value by applying a mathematical equation, an algorithm or a formula on one or more values and/or derivatives of values of the at least two parameters sensed, wherein the unit-less index-value is indicative of a respiratory status of the patient; such that a change in the unit-less index-value is indicative of a change in the patient respiratory status and wherein computing said unit-less index-value comprises multiplication of the medical significance levels that are associated with each of the at least two parameters; wherein said medical significance level of each of the parameters is deducted from a medical significance curve that depicts the correlation curve between an ordinary level of a physical condition and the level of the respective parameter. two or more sensors adapted to sense at least two parameters of a patient, wherein said two or more sensors comprise at least a capnograph and a pulse oximeter; and a computing unit adapted to compute a unit-less index-value by applying a mathematical equation, an algorithm or a formula on one or more values and/or derivatives of values of the at least two parameters sensed, wherein the unit-less index-value is indicative of a respiratory status of the patient; such that a change in the unit-less index-value is indicative of a change in the patient respiratory status and wherein computing said unit-less index-value comprises multiplication of the medical significance levels that are associated with each of the at least two parameters; wherein said medical significance level of each of the parameters is deducted from a medical significance curve that depicts the correlation curve between an ordinary level of a physical condition and the level of the respective parameter.
A system comprising: a printer; and a verifier coupled to the printer, the verifier including an image scanning system configured to verify a print quality of a barcode image printed by the printer, wherein one or more elements of the verifier are configured to have a handshake arrangement with one or more elements of the printer via a communication cable comprising a plurality of communication links (201, 202, 208) when verifying the print quality of the barcode image, wherein the handshake arrangement comprises one or more handshake signals propagated between the verifier and the printer, via the communication cable, for optimization of one or more operational factors, wherein the printer comprises a print feed motor and a command and control system, the command and control system being configured to control the print feed motor using one or more control signals generated based on the one or more handshake signals, and characterized in that, upon detecting at least one defect in the print quality of the barcode image, the image scanning system is configured to generate a handshake signal that is propagated via one communication link of the plurality communication links (201, 202, 208) to the print motor to stop printing any additional barcode images. a printer; and a verifier coupled to the printer, the verifier including an image scanning system configured to verify a print quality of a barcode image printed by the printer, wherein one or more elements of the verifier are configured to have a handshake arrangement with one or more elements of the printer via a communication cable comprising a plurality of communication links (201, 202, 208) when verifying the print quality of the barcode image, wherein the handshake arrangement comprises one or more handshake signals propagated between the verifier and the printer, via the communication cable, for optimization of one or more operational factors, wherein the printer comprises a print feed motor and a command and control system, the command and control system being configured to control the print feed motor using one or more control signals generated based on the one or more handshake signals, and characterized in that, upon detecting at least one defect in the print quality of the barcode image, the image scanning system is configured to generate a handshake signal that is propagated via one communication link of the plurality communication links (201, 202, 208) to the print motor to stop printing any additional barcode images.
A vascularized in vitro perfusion device comprising an adaptable microcirculation, said device comprising: a supporting structure comprising a gel matrix, a fabricated network of microfluidic endothelial cell-lined channels, said fabricated network comprising an inlet channel, an outlet channel, and at least one cross channel connecting the inlet channel to the outlet channel, said cross channel positioned at least partially within the gel matrix, an inlet port in fluid communication with the fabricated network, and an outlet port in fluid communication with the fabricated network, and a neovasculature, said neovasculature being derived from intact native microvessels incorporated into the gel matrix and subject to maturing conditions, wherein the fabricated network is in vascular communication and lumen continuity with the neovasculature to form an adaptable microcirculation, and wherein the vascular communication is formed from endothelial sprouting and an inosculation between at least two sprouts respectively derived from the at least one cross channel of the fabricated network and the neovasculature such that said neovasculature is in lumen continuity with said at least one cross channel through the inosculation. a supporting structure comprising a gel matrix, a fabricated network of microfluidic endothelial cell-lined channels, said fabricated network comprising an inlet channel, an outlet channel, and at least one cross channel connecting the inlet channel to the outlet channel, said cross channel positioned at least partially within the gel matrix, an inlet port in fluid communication with the fabricated network, and an outlet port in fluid communication with the fabricated network, and a neovasculature, said neovasculature being derived from intact native microvessels incorporated into the gel matrix and subject to maturing conditions,
A shaving razor system comprising: a handle; a shaving cartridge mounted to the handle; a circuit board having an electrical switch in communication with a power source positioned within the handle; a heating element in electrical communication with the electrical switch, the heating element having a skin contacting surface, wherein the heating element has a first pre-determined temperature and a second pre-determined temperature, and the second predetermined temperature is at least two degrees Celsius different from the first pre-determined temperature; the shaving razor system comprising a microcontroller in electrical communication with the heating element and the electrical switch, characterized in that the electrical switch has a first toggle time for changing between the first pre-determined temperature and the second pre-determined temperature and a second toggle time for changing between an on position and an off position, and at least one of the first pre-determined temperature and the second pre-determined temperature is set by the microcontroller. a handle; a shaving cartridge mounted to the handle; a circuit board having an electrical switch in communication with a power source positioned within the handle; a heating element in electrical communication with the electrical switch, the heating element having a skin contacting surface, wherein the heating element has a first pre-determined temperature and a second pre-determined temperature, and the second predetermined temperature is at least two degrees Celsius different from the first pre-determined temperature; the shaving razor system comprising a microcontroller in electrical communication with the heating element and the electrical switch, characterized in that the electrical switch has a first toggle time for changing between the first pre-determined temperature and the second pre-determined temperature and a second toggle time for changing between an on position and an off position, and at least one of the first pre-determined temperature and the second pre-determined temperature is set by the microcontroller.
Conveyor device comprising: a conveyance element extending in a longitudinal direction between two spaced apart landing portions (4, 6) and configured to move for conveying people and/or goods between the two landing portions (4, 6); at least one balustrade (10, 12) supporting a handrail, the at least one balustrade (10, 12) being located laterally at one side of the conveyance element and extending along the longitudinal direction of the conveyance element; and at least one sensor (22, 23), which is configured for detecting the presence of a person in a detection zone which extends from the at least one sensor (22, 23) in the form of a cone centered around a main detection direction, the detection zone further defined by at least one detection angle (α, β) being defined as an opening angle of the detection zone within a predefined plane extending from the at least one balustrade (10, 12), and at least one detection range; wherein the at least one sensor (22, 23) is located at or next to the at least one balustrade (10, 12); wherein the main detection direction extends from the at least one sensor (22, 23) in a direction away from the balustrade (10, 12) on a side opposite to the conveyance element; and wherein the detection range is set so that the detection zone ends in a distance (d) below the handrail forming a non-detection zone below an upper edge of the balustrade. a conveyance element extending in a longitudinal direction between two spaced apart landing portions (4, 6) and configured to move for conveying people and/or goods between the two landing portions (4, 6); at least one balustrade (10, 12) supporting a handrail, the at least one balustrade (10, 12) being located laterally at one side of the conveyance element and extending along the longitudinal direction of the conveyance element; and at least one sensor (22, 23), which is configured for detecting the presence of a person in a detection zone which extends from the at least one sensor (22, 23) in the form of a cone centered around a main detection direction, the detection zone further defined by at least one detection angle (α, β) being defined as an opening angle of the detection zone within a predefined plane extending from the at least one balustrade (10, 12), and at least one detection range; wherein the at least one sensor (22, 23) is located at or next to the at least one balustrade (10, 12); wherein the main detection direction extends from the at least one sensor (22, 23) in a direction away from the balustrade (10, 12) on a side opposite to the conveyance element; and wherein the detection range is set so that the detection zone ends in a distance (d) below the handrail forming a non-detection zone below an upper edge of the balustrade.