mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for positioning a tumor of a patient for treatment with positively charged particles, comprising: a semi-vertical patient positioning system, comprising: an upper body support comprising a patient support surface configured to maintain the patient in a semi-vertical treatment position; a motorized torso positioning system (2420, 2422); a motorized head positioning system (2440, 2442); a motorized arm positioning system (2450, 2452); a motorized back positioning system (2430, 2432); and a motorized foot positioning system (2470, 2472); and a charged particle irradiation system comprising a charged particle beam path, said charged particle beam path configured to pass during use within 38.1 centimeters of said patient support surface, wherein at least one of said head positioning system (2440, 2442), said arm positioning system, and said foot positioning system (2470, 2472) is configured to move independently of said torso positioning system (2420, 2422). a semi-vertical patient positioning system, comprising: an upper body support comprising a patient support surface configured to maintain the patient in a semi-vertical treatment position; a motorized torso positioning system (2420, 2422); a motorized head positioning system (2440, 2442); a motorized arm positioning system (2450, 2452); a motorized back positioning system (2430, 2432); and a motorized foot positioning system (2470, 2472); and an upper body support comprising a patient support surface configured to maintain the patient in a semi-vertical treatment position; a motorized torso positioning system (2420, 2422); a motorized head positioning system (2440, 2442); a motorized arm positioning system (2450, 2452); a motorized back positioning system (2430, 2432); and a motorized foot positioning system (2470, 2472); and a charged particle irradiation system comprising a charged particle beam path, said charged particle beam path configured to pass during use within 38.1 centimeters of said patient support surface, wherein at least one of said head positioning system (2440, 2442), said arm positioning system, and said foot positioning system (2470, 2472) is configured to move independently of said torso positioning system (2420, 2422).
Printing method for producing electrical and/or electronic structures on a print medium, wherein the print medium is moved through a plurality of successively disposed printing units of a printing machine, and subsequently i) in at least one first printing unit, a subject of the electrical and/or electronic structure to be printed is applied with at least one adhesive component i to the print medium, to generate a subject-shaped adhesive structure and ii) the print medium partially printed with the adhesive is supplied to at least one second printing unit, in which at least on conductive material is applied to the adhesive-printed regions of the print medium, characterized in that before step ii) there is an individualizing modification of at least one adhesive constituent, with the proviso that an individualizing modification of at least one adhesive constituent means, for the case where in step i) only one adhesive component is applied, a step of selective processing of the resulting adhesive structure of the adhesive component, and in the case where in step i) a plurality of adhesive components i are applied, a step of selective processing of a sub-structure (a) consisting of at least one adhesive component, or of the entire adhesive structure, which leads to individualization of the adhesive structures or (a) by partial depletion of the adhesive, by partial chemical conversion and/or chemical or physical destruction of the adhesive and/or of its essential constituents, and/or by masking and/or wetting by other substances before the application of the conductive material in step ii). i) in at least one first printing unit, a subject of the electrical and/or electronic structure to be printed is applied with at least one adhesive component i to the print medium, to generate a subject-shaped adhesive structure and ii) the print medium partially printed with the adhesive is supplied to at least one second printing unit, in which at least on conductive material is applied to the adhesive-printed regions of the print medium,
An organic light emitting display, OLED device, comprising: a plurality of pixels (P1, P2), each pixel of the plurality of pixels configured to emit light; and a plurality of different color subpixels included in each pixel of the plurality of pixels, one subpixel of the plurality of different color subpixels within each pixel positioned between at least two pairs of adjacent other color subpixels within each pixel, wherein the plurality of different color subpixels of each pixel includes: a first subpixel for emitting first-color light, a second subpixel for emitting second-color light, a third subpixel for emitting third-color light, and a fourth subpixel for emitting fourth-color light, characterized in that the fourth subpixel is positioned between pairs of adjacent subpixels, the adjacent subpixels being selected from the first subpixel, the second subpixel and the third subpixel in one pixel; and in that the fourth subpixel is adjacent to at least two sides of each of the first subpixel, the second subpixel and the third subpixel in one pixel. a plurality of pixels (P1, P2), each pixel of the plurality of pixels configured to emit light; and a plurality of different color subpixels included in each pixel of the plurality of pixels, one subpixel of the plurality of different color subpixels within each pixel positioned between at least two pairs of adjacent other color subpixels within each pixel, wherein the plurality of different color subpixels of each pixel includes: a first subpixel for emitting first-color light, a second subpixel for emitting second-color light, a third subpixel for emitting third-color light, and a fourth subpixel for emitting fourth-color light, characterized in that the fourth subpixel is positioned between pairs of adjacent subpixels, the adjacent subpixels being selected from the first subpixel, the second subpixel and the third subpixel in one pixel; and in that the fourth subpixel is adjacent to at least two sides of each of the first subpixel, the second subpixel and the third subpixel in one pixel. a first subpixel for emitting first-color light, a second subpixel for emitting second-color light, a third subpixel for emitting third-color light, and a fourth subpixel for emitting fourth-color light, characterized in that the fourth subpixel is positioned between pairs of adjacent subpixels, the adjacent subpixels being selected from the first subpixel, the second subpixel and the third subpixel in one pixel; and in that the fourth subpixel is adjacent to at least two sides of each of the first subpixel, the second subpixel and the third subpixel in one pixel.
A compound of formula I wherein R 1 is a straight or branched, saturated or unsaturated, acyl group having 2 to 5 carbon atoms; R 2 is a straight or branched, saturated or unsaturated acyl group having 6 to 18 carbon atoms; R 3 is a straight or branched, saturated or unsaturated acyl or alkyl group, containing 2 to 18 carbon atoms; y is an integer from 0 to 3, m, n and x are independently an integer from 2 to 3; z is zero or 1. wherein R 1 is a straight or branched, saturated or unsaturated, acyl group having 2 to 5 carbon atoms; R 2 is a straight or branched, saturated or unsaturated acyl group having 6 to 18 carbon atoms; R 3 is a straight or branched, saturated or unsaturated acyl or alkyl group, containing 2 to 18 carbon atoms; y is an integer from 0 to 3, m, n and x are independently an integer from 2 to 3; z is zero or 1.
A handheld three-dimensional bioprinting device comprising: a first dispensing element configured to dispense a structural material; a second dispensing element configured to dispense a biological material; and a material selector switch configured to select either the structural material or the biological material for dispensing by the three-dimensional bioprinting device; wherein the second dispensing element is single-use and sterilizable; and wherein the first dispensing element is connectable to the second dispensing element. a first dispensing element configured to dispense a structural material; a second dispensing element configured to dispense a biological material; and a material selector switch configured to select either the structural material or the biological material for dispensing by the three-dimensional bioprinting device; wherein the second dispensing element is single-use and sterilizable; and wherein the first dispensing element is connectable to the second dispensing element.
Heat pump installation (1,2) for heating a medium, comprising: - means configured and suitable for supplying medium to be heated, having medium flow through the heat pump installation, and discharging heated medium; - a first refrigerant circuit with a first refrigerant circulating therein and comprising a first compressor and a first expansion member; - a first heat exchanger configured and suitable for extracting heat from a source and relinquishing heat to the first refrigerant; - a second refrigerant circuit with a second refrigerant circulating therein and comprising a second compressor and a second expansion member; - a second heat exchanger configured and suitable for extracting heat from the first refrigerant and for relinquishing heat to at least a part of medium flowing through the heat pump installation (1,2); - a third heat exchanger, in series with and downstream of the second heat exchanger in respect of the first refrigerant, configured and suitable for extracting heat from the first refrigerant and for relinquishing heat to the second refrigerant; and - a fourth heat exchanger configured and suitable for extracting heat from the second refrigerant and for relinquishing heat to at least a part of medium flowing through the heat pump installation (1,2), characterized in that the heat pump installation (1,2) also comprises a fifth heat exchanger, in series with and downstream of the second heat exchanger in respect of the first refrigerant and in series with and upstream of the third heat exchanger in respect of the first refrigerant, and configured and suitable for extracting heat from the first refrigerant and for relinquishing heat to at least a part of medium flowing through the heat pump installation (1,2). - means configured and suitable for supplying medium to be heated, having medium flow through the heat pump installation, and discharging heated medium; - a first refrigerant circuit with a first refrigerant circulating therein and comprising a first compressor and a first expansion member; - a first heat exchanger configured and suitable for extracting heat from a source and relinquishing heat to the first refrigerant; - a second refrigerant circuit with a second refrigerant circulating therein and comprising a second compressor and a second expansion member; - a second heat exchanger configured and suitable for extracting heat from the first refrigerant and for relinquishing heat to at least a part of medium flowing through the heat pump installation (1,2); - a third heat exchanger, in series with and downstream of the second heat exchanger in respect of the first refrigerant, configured and suitable for extracting heat from the first refrigerant and for relinquishing heat to the second refrigerant; and - a fourth heat exchanger configured and suitable for extracting heat from the second refrigerant and for relinquishing heat to at least a part of medium flowing through the heat pump installation (1,2),
A method for an arrangement in a base station for handling an ACKnowledgement/Not AcKnowledgement "ACK"/"NAK" message from a terminal, the base station and the terminal being comprised in a telecommunications system, the method comprising the steps of: sending a number of downlink subframes comprising transport blocks to the terminal, signaling in each subframe a Downlink Assignment Index "DAI" to the terminal, the DAI representing the number of previous downlink subframes with a downlink assignment addressed to said terminal, which DAI will be used by the terminal for establishing if any downlink subframes transmitted from the base station has been missed, by comparing the number of received downlink assignments with the DAI signaled from the base station, receiving from the terminal one encoded ACK message for k downlink assignments, which encoded ACK message comprises k, the number of subframes in which a downlink assignment addressed to said terminal was detected by the terminal, in case each one of the transport blocks, comprised in the downlink subframes in which it has detected a downlink assignment is estimated as correctly received by the terminal, receiving from the terminal one encoded NAK message, which encoded NAK message is modulated into a constellation point being different from the constellation point that would have been used for modulating said ACK message, in case a downlink assignment transmitted from the base station to the terminal has been established to be missed by the terminal. sending a number of downlink subframes comprising transport blocks to the terminal, signaling in each subframe a Downlink Assignment Index "DAI" to the terminal, the DAI representing the number of previous downlink subframes with a downlink assignment addressed to said terminal, which DAI will be used by the terminal for establishing if any downlink subframes transmitted from the base station has been missed, by comparing the number of received downlink assignments with the DAI signaled from the base station, receiving from the terminal one encoded ACK message for k downlink assignments, which encoded ACK message comprises k, the number of subframes in which a downlink assignment addressed to said terminal was detected by the terminal, in case each one of the transport blocks, comprised in the downlink subframes in which it has detected a downlink assignment is estimated as correctly received by the terminal, receiving from the terminal one encoded NAK message, which encoded NAK message is modulated into a constellation point being different from the constellation point that would have been used for modulating said ACK message, in case a downlink assignment transmitted from the base station to the terminal has been established to be missed by the terminal.
A connection module that is to be mounted on a power storage element group including power storage elements having positive and negative electrode terminals, the connection module comprising: a bus bar connecting the electrode terminals of adjacent power storage elements; and an insulation protector including a bus bar holder holding the bus bar; wherein the bus bar holder is constituted by connection units (31A, 31B, 31C, 31AR) that are connected to each other in an arrangement direction in which the power storage elements are arranged, wherein the connection units (31A, 31B, 31C, 31AR) include two end connection units (31A, 31AR) at two ends of the insulation protector, and an intermediate connection unit (31B, 31C) being between the two end connection units (31A, 31AR), the two end connection units (31A, 31AR) are connection units having a same structure, and one of the end connection units (31A, 31AR) is relatively rotated by 180 degrees in a plan view with respect to another one of the end connection units (31A, 31AR), each of the end connection units (31A, 31AR) is connected to a corresponding intermediate connection unit (31B, 31C). a bus bar connecting the electrode terminals of adjacent power storage elements; and an insulation protector including a bus bar holder holding the bus bar; wherein the bus bar holder is constituted by connection units (31A, 31B, 31C, 31AR) that are connected to each other in an arrangement direction in which the power storage elements are arranged, wherein the connection units (31A, 31B, 31C, 31AR) include two end connection units (31A, 31AR) at two ends of the insulation protector, and an intermediate connection unit (31B, 31C) being between the two end connection units (31A, 31AR), the two end connection units (31A, 31AR) are connection units having a same structure, and one of the end connection units (31A, 31AR) is relatively rotated by 180 degrees in a plan view with respect to another one of the end connection units (31A, 31AR), each of the end connection units (31A, 31AR) is connected to a corresponding intermediate connection unit (31B, 31C).
A heater system of an electric construction machine comprising a hydraulic pump driven by an electric motor and a main control valve configured to supply a working fluid discharged from the hydraulic pump to at least one actuator, the heater system comprising: a heater core which is disposed downstream of the actuator and through which the working fluid passes, a switching valve configured to selectively supply the working fluid to the heater core; and an oil cooler configured to control a temperature of the working fluid, wherein a heated air is supplied to a cabin through the heater core using a heat of the working fluid, characterized in that a flow path of the working fluid supplied through the switching valve is branched into each of the heater core, the oil cooler and a working fluid tank. a heater core which is disposed downstream of the actuator and through which the working fluid passes, a switching valve configured to selectively supply the working fluid to the heater core; and an oil cooler configured to control a temperature of the working fluid, wherein a heated air is supplied to a cabin through the heater core using a heat of the working fluid, characterized in that a flow path of the working fluid supplied through the switching valve is branched into each of the heater core, the oil cooler and a working fluid tank.
An emulsifier for a water-in-oil emulsion fuel, wherein the emulsifier comprises following components to: Heavy oil A: 50 mL to 100 mL Heavy oil B: 100 mL to 200 mL Heavy oil C: 300 mL to 450 mL Methanol: 100 mL to 150 mL Ethanol: 100 mL to 200 mL Palm oil: 100 mL to 150 mL Water: 100 mL to 200 mL
An integrated circuit comprising: a processor (202a, 202b, 202c, 202d) a magnetoresistive random access memory (MRAM) module (218,318), comprising a MRAM last level cache (208a, 208b, 308a, 308b) and a MRAM main memory (212, 312); characterised in that the processor (202a, 202b, 202c, 202d) is integrated on a first chip and the MRAM module is integrated on a second chip with an interface between the first chip and second chip, the interface configured to couple the processor (202a, 202b, 202c, 202d) and the MRAM module (218, 318). a processor (202a, 202b, 202c, 202d) a magnetoresistive random access memory (MRAM) module (218,318), comprising a MRAM last level cache (208a, 208b, 308a, 308b) and a MRAM main memory (212, 312); characterised in that the processor (202a, 202b, 202c, 202d) is integrated on a first chip and the MRAM module is integrated on a second chip with an interface between the first chip and second chip, the interface configured to couple the processor (202a, 202b, 202c, 202d) and the MRAM module (218, 318).
A user equipment, 'UE,' for use in a wireless communication network, comprising: a processor configured such that during a voice over internet protocol 'VoIP' communication session, the UE transmits a plurality of packets, using a series of semi-persistent resources allocated at a time interval, wherein the UE is configured to transmit a buffer status report, using one of the semi-persistent resources for dynamically allocating a resource for a packet that is too large to be transmitted using one of the semi-persistent resources; and wherein the UE is further configured such that during the VoIP communication session, the UE is to transmit the packet, using the dynamically allocated resource, between two serial semi-persistent resources allocated for transmitting two of the packets. a processor configured such that during a voice over internet protocol 'VoIP' communication session, the UE transmits a plurality of packets, using a series of semi-persistent resources allocated at a time interval, wherein the UE is configured to transmit a buffer status report, using one of the semi-persistent resources for dynamically allocating a resource for a packet that is too large to be transmitted using one of the semi-persistent resources; and wherein the UE is further configured such that during the VoIP communication session, the UE is to transmit the packet, using the dynamically allocated resource, between two serial semi-persistent resources allocated for transmitting two of the packets.
The use of a viscosity modifier, in a marine diesel cylinder lubricant of TBN 10 to 100 using ASTM D2896 or a trunk piston engine oil having a TBN of 25 to 60 using ASTM D2896, to reduce the consumption of the resulting lubricating oil composition whilst improving the carbon deposition properties of said oil composition: wherein the viscosity modifier is used in the form of either (i) a polymer comprising a core and a plurality of polymeric arms extending therefrom or (ii) an olefin copolymer, the viscosity modifier being dispersed in a diluent oil having a kinematic viscosity at 100°C in the range of 6-15 mm 2 s -1; and wherein the viscosity modifier is used in an amount in the range of 0.01 to 40 mass % of the resulting lubricating oil composition, wherein said oil composition also comprises one or more additives in respective minor amounts, and contains less than 0.5 mass % of brightstock. wherein the viscosity modifier is used in the form of either (i) a polymer comprising a core and a plurality of polymeric arms extending therefrom or (ii) an olefin copolymer, the viscosity modifier being dispersed in a diluent oil having a kinematic viscosity at 100°C in the range of 6-15 mm 2 s -1; and wherein the viscosity modifier is used in an amount in the range of 0.01 to 40 mass % of the resulting lubricating oil composition, wherein said oil composition also comprises one or more additives in respective minor amounts, and contains less than 0.5 mass % of brightstock.
A carbon-based thin film comprising: columnar first phases that contain amorphous carbon and extend in a film thickness direction; and a second phase that contains a graphite structure and intervenes between the first phases, wherein a density of the second phase is larger than that of the first phases; the carbon-based thin film consists of carbon or of carbon and at least one element selected from a group consisting of hydrogen, nitrogen, boron and silicon, wherein the content of carbon is 50% of the atoms or more; the second phase forms a network between the first phases; and the second phase contains more graphite structures per unit volume than the first phases. columnar first phases that contain amorphous carbon and extend in a film thickness direction; and a second phase that contains a graphite structure and intervenes between the first phases, wherein a density of the second phase is larger than that of the first phases; the carbon-based thin film consists of carbon or of carbon and at least one element selected from a group consisting of hydrogen, nitrogen, boron and silicon, wherein the content of carbon is 50% of the atoms or more; the second phase forms a network between the first phases; and the second phase contains more graphite structures per unit volume than the first phases.