mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: attaching a binding system to an inwardly facing side of a cover, wherein the binding system is operable to bind a spine end of a collection of physical media sheets to the cover; and wherein the binding system comprises a datum stop protruding away from the inwardly facing side of the cover, and the datum stop comprises a datum stop surface against which a head end or a tail end of the collection is registerable prior to binding the collection to the cover, wherein the method further comprises positioning and registering the physical media sheet collection against the datum stop surface, and then binding the spine end of the collection of physical media sheets to the cover through the binding system. attaching a binding system to an inwardly facing side of a cover, wherein the binding system is operable to bind a spine end of a collection of physical media sheets to the cover; and wherein the binding system comprises a datum stop protruding away from the inwardly facing side of the cover, and the datum stop comprises a datum stop surface against which a head end or a tail end of the collection is registerable prior to binding the collection to the cover, wherein the method further comprises positioning and registering the physical media sheet collection against the datum stop surface, and then binding the spine end of the collection of physical media sheets to the cover through the binding system.
A pipe assembly comprising: a first wall having an inner surface defining a fuel flowpath; a second wall spaced radially outward of the first wall; a gap formed between the first wall and the second wall defining a flow passage, wherein the flow passage provides a heating flowpath; and a screen positioned within the fuel flowpath, characterized by the screen including: a downstream end connected to the first wall; an upstream end extending upstream of the downstream end; and holes extending from an upstream side of the screen to a downstream side of the screen; wherein the screen is configured to direct ice in the fuel flowpath toward the inner surface of the first wall such that heat from the first wall melts the ice. a first wall having an inner surface defining a fuel flowpath; a second wall spaced radially outward of the first wall; a gap formed between the first wall and the second wall defining a flow passage, wherein the flow passage provides a heating flowpath; and a screen positioned within the fuel flowpath, characterized by the screen including: a downstream end connected to the first wall; an upstream end extending upstream of the downstream end; and holes extending from an upstream side of the screen to a downstream side of the screen; wherein the screen is configured to direct ice in the fuel flowpath toward the inner surface of the first wall such that heat from the first wall melts the ice. a downstream end connected to the first wall; an upstream end extending upstream of the downstream end; and holes extending from an upstream side of the screen to a downstream side of the screen; wherein the screen is configured to direct ice in the fuel flowpath toward the inner surface of the first wall such that heat from the first wall melts the ice.
A one-unit operation, continuous extrusion process for making a rheology-modified, additive-containing ethylenic polymer in a continuously operated multi-zone extruder sequentially comprising a first zone configured with a main feeder for adding an ethylenic polymer into the extruder and optionally configured with an injector for adding a high-temperature decomposing peroxide into the first zone of the extruder, a second zone optionally configured with an injector for adding a high-temperature decomposing peroxide into the second zone of the extruder, a third zone configured with a side feeder for adding one or more additives into the third zone of the extruder, and an outlet for discharging material from the extruder, wherein the first zone is in material communication with the second zone via zero, one or more intermediary zones disposed therebetween, wherein the second zone is in material communication with the third zone via zero, one or more intermediary zones disposed therebetween, and wherein the third zone is in material communication with the outlet via 0, 1 or more intermediary zones disposed therebetween, and wherein at least one of the first and second zones is configured with the injector, the process comprising the steps of: mixing in the second zone of the extruder the ethylenic polymer and the high-temperature decomposing peroxide at a temperature such that the half-life of the peroxide is greater than (>) one minute and for a sufficient period of time to melt the ethylenic polymer and to modify the rheology of the melted ethylenic polymer to produce a rheology-modified, melted ethylenic polymer that is transferred to the third zone of the extruder; and adding via the side feeder of the third zone said one or more additives to the rheology-modified, melted ethylenic polymer to produce the rheology-modified, additive-containing ethylenic polymer. mixing in the second zone of the extruder the ethylenic polymer and the high-temperature decomposing peroxide at a temperature such that the half-life of the peroxide is greater than (>) one minute and for a sufficient period of time to melt the ethylenic polymer and to modify the rheology of the melted ethylenic polymer to produce a rheology-modified, melted ethylenic polymer that is transferred to the third zone of the extruder; and adding via the side feeder of the third zone said one or more additives to the rheology-modified, melted ethylenic polymer to produce the rheology-modified, additive-containing ethylenic polymer.
An ultrasound probe (11, 11A, 11B) comprising: a housing; a transducer array that is retained in the housing and has a rear surface portion, from which a wiring cable (WC1, WC2) is drawn out; a circuit substrate that is retained in the housing, the wiring cable being connected to the circuit substrate; a battery that is retained in the housing and performs power supply; and characterized by a fire protection structure (F1, F2, MB, R1, R2, RR, S1, S2, S3) disposed between the transducer array and the circuit substrate in the housing, wherein the fire protection structure has a flame retardant member disposed inside the housing to separate between the rear surface portion of the transducer array and the circuit substrate. a housing; a transducer array that is retained in the housing and has a rear surface portion, from which a wiring cable (WC1, WC2) is drawn out; a circuit substrate that is retained in the housing, the wiring cable being connected to the circuit substrate; a battery that is retained in the housing and performs power supply; and characterized by a fire protection structure (F1, F2, MB, R1, R2, RR, S1, S2, S3) disposed between the transducer array and the circuit substrate in the housing, wherein the fire protection structure has a flame retardant member disposed inside the housing to separate between the rear surface portion of the transducer array and the circuit substrate.
Hydraulic valve configured to connect a first pipe extending according to a first axis and a second pipe extending according to a second axis, the hydraulic valve comprising: - a body having two first ports that are aligned and configured to connect two fractions of the first pipe and two second ports that are aligned and configured to connect two fractions of the second pipe, - a rotating shutter mounted in the body and configured to rotate according to an actuating axis that is transverse to the first axis and the second axis when the two first ports are connected to the first pipe and the two second ports are connected to the second pipe, the rotating shutter being provided with a first straight channel and a second straight channel, the first straight channel connecting the two first ports and the second straight channel connecting the two second ports in a closed angular position of the rotating shutter; the hydraulic valve further having a passage channel distinct from the first straight channel and the second straight channel and being configured to connect one of the first ports to one of the second ports in an open angular position of the rotating shutter, characterised in that the passage channel presents a section with a depth defined radially with respect to the actuating axis and a width that is transverse to the depth, the depth growing from the end regions toward the central region and the width decreasing from the end regions toward the central region. - a body having two first ports that are aligned and configured to connect two fractions of the first pipe and two second ports that are aligned and configured to connect two fractions of the second pipe, - a rotating shutter mounted in the body and configured to rotate according to an actuating axis that is transverse to the first axis and the second axis when the two first ports are connected to the first pipe and the two second ports are connected to the second pipe, the rotating shutter being provided with a first straight channel and a second straight channel, the first straight channel connecting the two first ports and the second straight channel connecting the two second ports in a closed angular position of the rotating shutter; the hydraulic valve further having a passage channel distinct from the first straight channel and the second straight channel and being configured to connect one of the first ports to one of the second ports in an open angular position of the rotating shutter, characterised in that the passage channel presents a section with a depth defined radially with respect to the actuating axis and a width that is transverse to the depth, the depth growing from the end regions toward the central region and the width decreasing from the end regions toward the central region.
A switch circuit, comprising: a wireless communication module; a switch module, coupled to a load, wherein the load is coupled with a neutral wire; an energy storage circuit, coupled with the wireless communication module; a switch-on power obtaining circuit, wherein an input terminal of the switch-on power obtaining circuit is coupled with a live wire, the switch-on power obtaining circuit comprises a first load coupling terminal and a first power supply terminal, the first load coupling terminal is coupled with the switch module, the first power supply terminal is coupled with the energy storage circuit, and the switch-on power obtaining circuit is configured to obtain power from the live wire and output a first current to the energy storage circuit via the first power supply terminal in response to the switch module being switched on; and a switch-off power obtaining circuit, wherein an input terminal of the switch-off power obtaining circuit is coupled with the live wire, the switch-off power obtaining circuit comprises a second load coupling terminal and a second power supply terminal, the second load coupling terminal is coupled between the load and the switch module, the second power supply terminal is coupled with the energy storage circuit, and the switch-off power obtaining circuit is configured to obtain power from the live wire and output a second current to the energy storage circuit via the second power supply terminal in response to the switch module being switched off, in which the second current is less than the first current. a wireless communication module; a switch module, coupled to a load, wherein the load is coupled with a neutral wire; an energy storage circuit, coupled with the wireless communication module; a switch-on power obtaining circuit, wherein an input terminal of the switch-on power obtaining circuit is coupled with a live wire, the switch-on power obtaining circuit comprises a first load coupling terminal and a first power supply terminal, the first load coupling terminal is coupled with the switch module, the first power supply terminal is coupled with the energy storage circuit, and the switch-on power obtaining circuit is configured to obtain power from the live wire and output a first current to the energy storage circuit via the first power supply terminal in response to the switch module being switched on; and a switch-off power obtaining circuit, wherein an input terminal of the switch-off power obtaining circuit is coupled with the live wire, the switch-off power obtaining circuit comprises a second load coupling terminal and a second power supply terminal, the second load coupling terminal is coupled between the load and the switch module, the second power supply terminal is coupled with the energy storage circuit, and the switch-off power obtaining circuit is configured to obtain power from the live wire and output a second current to the energy storage circuit via the second power supply terminal in response to the switch module being switched off, in which the second current is less than the first current.
Container for emanating volatile substances, comprising a container body having at least one opening closed by a lid film, said lid film comprising an outer multi-layer film having at least one barrier layer impermeable to the volatile substances, a coextruded inner multi-layer film having at least one layer permeable to the volatile substances, the coextruded inner multi-layer film being bonded on one side to the outer multi-layer film and on another side to the container, the coextruded inner multi-layer film consisting of at least a polyethylene layer, a release layer comprising a polymer selected from the group consisting of EVOH and PETg, a peelable interface interposed between the release layer and a layer permeable to the volatile substances, whereby said permeable layer comprises an outer layer made of a polymer blend of mVLDLLDPE, LDPE, and LLDPE, a core layer made of a polymer blend of mVLDLLDPE, and LDPE or preferably LLDPE, and a sealing layer made of a polymer blend of mVLDLLDPE, LDPE, and LLDPE, said permeable layer being sealed to the container and providing an evaporation rate of the volatile substances of at least 30% of a maximal evaporation rate of an opening not covered by said permeable layer, whereby the evaporation rate is measured as described in the description.
Application arrangement for application of a liquid medium with a housing in which a distribution chamber with at least one feed opening and at least one outlet opening is formed, and a distribution means, which is arranged in the distribution chamber and is designed as a cylindrical distributor shaft (11; 11'), wherein a plurality of radially outward open distribution channels are worked into a circumferential surface of the distributor shaft (11; 11') and form a continuous distribution net extending over the circumferential surface of the distributor shaft (11; 11'), characterized in that the distribution net is in fluid-carrying connection on the input side with the at least one feed opening and on the output side with the at least one outlet opening and is designed such that the liquid medium is conducted through the radially outward open distribution channels from the at least one feed opening to the at least one outlet opening.
A peptide comprising an amino acid sequence consisting of SEQ ID No. 25; and a pharmaceutical acceptable salt thereof, and wherein said peptide has an overall length of from 11 to 16 amino acids.
A method of wireless communication of a user equipment, UE, comprising: receiving, from a service provider, a certificate authority list, the certificate authority list being at least one of integrity protected or encrypted based on a credential known by the UE and the service provider and stored on a smartcard in the UE; the method being characterised in that it comprises: receiving a user service discovery / announcement including a reception reports configuration and an address of a server; setting up a secure connection with the server; authenticating the server using the received certificate authority list; and sending a reception report to the server through the secure connection based on the address and the reception report configuration. receiving, from a service provider, a certificate authority list, the certificate authority list being at least one of integrity protected or encrypted based on a credential known by the UE and the service provider and stored on a smartcard in the UE; the method being characterised in that it comprises: receiving a user service discovery / announcement including a reception reports configuration and an address of a server; setting up a secure connection with the server; authenticating the server using the received certificate authority list; and sending a reception report to the server through the secure connection based on the address and the reception report configuration. receiving a user service discovery / announcement including a reception reports configuration and an address of a server; setting up a secure connection with the server; authenticating the server using the received certificate authority list; and sending a reception report to the server through the secure connection based on the address and the reception report configuration.
A shaving aid composition comprising: a glycol, a humectant, a solid soap base, and a surfactant, characterized in that it further comprises: about 0.5 to 4% by weight, preferably 2.5 to 3.5% of a multifunctional polymer wherein the multifunctional polymer is polypropylene terephthalate; said percentages being calculated with respect to the total weight of the shaving aid composition. a glycol, a humectant, a solid soap base, and a surfactant, characterized in that it further comprises: about 0.5 to 4% by weight, preferably 2.5 to 3.5% of a multifunctional polymer wherein the multifunctional polymer is polypropylene terephthalate; said percentages being calculated with respect to the total weight of the shaving aid composition. about 0.5 to 4% by weight, preferably 2.5 to 3.5% of a multifunctional polymer wherein the multifunctional polymer is polypropylene terephthalate; said percentages being calculated with respect to the total weight of the shaving aid composition.
A pharmaceutical composition for use in a method for the treatment of chronic obstructive pulmonary disease in a patient in need of such treatment, by inhalation from a single-dose dry powder inhaler or a multi-dose dry powder inhaler, said pharmaceutical composition comprising aclidinium in the form of a dry powder of a pharmaceutically acceptable salt in admixture with a pharmaceutically acceptable dry powder carrier, and said treatment comprising (i) administering once daily an emitted dose of aclidinium equivalent to 360 μg (plus/minus 10%) aclidinium bromide, or (ii) administering twice daily an emitted dose of aclidinium equivalent to 360 μg (plus/minus 10%) aclidinium bromide. said pharmaceutical composition comprising aclidinium in the form of a dry powder of a pharmaceutically acceptable salt in admixture with a pharmaceutically acceptable dry powder carrier, and said treatment comprising (i) administering once daily an emitted dose of aclidinium equivalent to 360 μg (plus/minus 10%) aclidinium bromide, or (ii) administering twice daily an emitted dose of aclidinium equivalent to 360 μg (plus/minus 10%) aclidinium bromide.
Holder (10, 10A, 10B, 10C) for a sensor unit, comprising at least two one-piece busbars (14A, 14B), wherein an internal electrical interface (16.1) to a measuring transducer is formed at first ends of the at least two busbars (14A, 14B), and an external electrical interface (16.2, 16.2A, 16.2B, 16.2C) for a plug module is formed at second ends of the at least two busbars (14A, 14B), characterized in that an orientation component engages around the at least two busbars (14A, 14B) and is arranged between the internal electrical interface (16.1) and the external electrical interface (16.2, 16.2A, 16.2B, 16.2C), wherein an orientation of the orientation component, which orientation defines an outgoing direction of the second ends of the at least two busbars (14A, 14B) and of the external electrical interface (16.2, 16.2A, 16.2B, 16.2C) and matches said outgoing direction to the plug module, can be changed.
Use - of an alkyltrichlorosilane of the following formula I R-SiCl 3 (formula I), wherein R represents an alkyl group, Si represents a silicon atom and Cl represents a chlorine atom, for the removal of microplastic particles from water and/or a body of water. - of an alkyltrichlorosilane of the following formula I R-SiCl 3 (formula I), wherein R represents an alkyl group, Si represents a silicon atom and Cl represents a chlorine atom,
A radial illumination system for projecting a light pattern radially comprising: a light source for generating a light output; an optical fiber which is adapted to transmit the light output and to emit the light in a direction centered along an axis, from an end of the optical fiber; a ferrule around the end of the optical fiber; and a reflector coupled to or integral with the ferrule, for redirecting the emitted light to form a ring of generally radial light around the axis, wherein the ferrule comprises a reflecting face which faces away from the end of the optical fiber, and the reflector comprises a cap which is mounted over end of the ferrule and which has a reflecting surface which faces the end of the optical fiber, such that an optical path is defined from the end of the optical fiber, to the reflecting surface and then to the reflecting face. a light source for generating a light output; an optical fiber which is adapted to transmit the light output and to emit the light in a direction centered along an axis, from an end of the optical fiber; a ferrule around the end of the optical fiber; and a reflector coupled to or integral with the ferrule, for redirecting the emitted light to form a ring of generally radial light around the axis, wherein the ferrule comprises a reflecting face which faces away from the end of the optical fiber, and the reflector comprises a cap which is mounted over end of the ferrule and which has a reflecting surface which faces the end of the optical fiber, such that an optical path is defined from the end of the optical fiber, to the reflecting surface and then to the reflecting face.
A cooling system (2, 60) for an interior space of a vehicle, comprising - a main cooling system (4, 62) coupled with an air inlet for receiving air and adapted for being coupled with the interior space (12, 14, 16, 18, 20) for providing cooled air to the interior space (12, 14, 16, 18, 20), - at least one air duct (8, 22, 24, 26) adapted for being arranged between the air inlet and the interior space (12, 14, 16, 18, 20), - a reservoir for liquid nitrogen having a nitrogen outlet and - a valve arranged between the nitrogen outlet of the reservoir and an injection port of the at least one air duct (8, 22, 24, 26), wherein the main cooling system (4, 62) is an evaporative cooling system which comprises at least one heat exchanger arranged in an air inlet of the main cooling system or an air cycle cooling system having a heat exchanger for disposing of heat created during an air cycle process, wh erein the reservoir is coupled with the injection port of the at least one air duct (8, 22, 24, 26) via the valve for evaporating nitrogen in the at least one air duct (8, 22, 24, 26) on demand, and wherein the nitrogen is evaporated upstream of the main cooling system in the air flowing through the heat exchanger of the main cooling system. - a main cooling system (4, 62) coupled with an air inlet for receiving air and adapted for being coupled with the interior space (12, 14, 16, 18, 20) for providing cooled air to the interior space (12, 14, 16, 18, 20), - at least one air duct (8, 22, 24, 26) adapted for being arranged between the air inlet and the interior space (12, 14, 16, 18, 20), - a reservoir for liquid nitrogen having a nitrogen outlet and - a valve arranged between the nitrogen outlet of the reservoir and an injection port of the at least one air duct (8, 22, 24, 26),