mhurhangee/ep-ind-claims huggingface dataset:
Device for transporting bicycles on motor vehicles comprising: - a small channel connectable through supporting means to the roof of a motor vehicle, - an arm connected rotating to the small channel, and - catching means connected to the rotatable arm to catch the bicycle and keep it in a vertical position when its wheels are abutted onto the small channel, said rotatable arm comprising a lower part connected rotating at an axis to the small channel and arranged laterally thereto, in order to find itself, with respect to a longitudinal direction of the small channel, on the loading part of the bicycle on the device, said rotatable arm comprising an upper part connected to the catching means and arranged laterally to the small channel on the opposite side with respect to the lower part, to allow a user to easily grasp the lower part of the rotating arm, enabling its rotation and the following blocking of the bicycle on the device keeping it in its vertical position, the catching means connected to the rotatable arm having an opening oriented towards the loading part of the bicycle on the device, to block the bicycle and keep it in its vertical position when its wheels are abutted onto the small channel, characterized in that the lower part is located between the axis and the upper part. - a small channel connectable through supporting means to the roof of a motor vehicle, - an arm connected rotating to the small channel, and - catching means connected to the rotatable arm to catch the bicycle and keep it in a vertical position when its wheels are abutted onto the small channel, said rotatable arm comprising a lower part connected rotating at an axis to the small channel and arranged laterally thereto, in order to find itself, with respect to a longitudinal direction of the small channel, on the loading part of the bicycle on the device, said rotatable arm comprising an upper part connected to the catching means and arranged laterally to the small channel on the opposite side with respect to the lower part, to allow a user to easily grasp the lower part of the rotating arm, enabling its rotation and the following blocking of the bicycle on the device keeping it in its vertical position, the catching means connected to the rotatable arm having an opening oriented towards the loading part of the bicycle on the device, to block the bicycle and keep it in its vertical position when its wheels are abutted onto the small channel, characterized in that the lower part is located between the axis and the upper part.
Mould tool for a press with parallel press surfaces for production of rigid expanded polymer embryo bodies, the mould tool comprises a first mould member with a major wall and a second mould member with a major wall wherein said major walls are configured to be parallel with and adjacent to the respective press surfaces and first mould member and said second mould member are moveable with respect to each other in a direction perpendicular to said major walls, and sealing means providing a hermetic seal between the first and second mould member during at least a portion of such a relative motion, thereby defining a closed mould cavity of variable volume, wherein the first mould member defines at least a portion of the mould cavity volume and comprises an outer peripheral edge, and the second mould member comprises a rim that closely circumscribes the outer peripheral edge of the first mould member and wherein the sealing means is arranged in a gap formed between the rim and the outer peripheral edge, wherein: the first mould member comprises a perpendicular side wall that circumscribes the major wall, the outer periphery of the side wall forming the outer peripheral edge, characterized in that the side wall is dimensioned so that the reduction of the gap between the outer peripheral edge and the rim is less than 25% at an internal pressure of 20,3 MPa (200 atm). the first mould member comprises a perpendicular side wall that circumscribes the major wall, the outer periphery of the side wall forming the outer peripheral edge, the side wall is dimensioned so that the reduction of the gap between the outer peripheral edge and the rim is less than 25% at an internal pressure of 20,3 MPa (200 atm).
A centralized RAN, C-RAN, radio unit, RU, in a wireless base station including the C-RAN RU and a centralized RAN, C-RAN, digital unit, DU,, the C-RAN RU comprising: an acquisition unit configured to acquire measurement resource information from the C-RAN DU; a measurement unit configured to measure interference level of a radio resource indicated by the measurement resource information; and a transmission unit configured to transmit a measurement result of the interference level measured by the measurement unit to the C-RAN DU, wherein the measurement resource information is information indicating a radio resource of which uplink interference level is to be measured, wherein the transmission unit is configured to transmit the measurement result of the interference level measured by the measurement unit to the C-RAN DU when the measurement result of the interference level measured by the measurement unit satisfies a predetermined condition. an acquisition unit configured to acquire measurement resource information from the C-RAN DU; a measurement unit configured to measure interference level of a radio resource indicated by the measurement resource information; and a transmission unit configured to transmit a measurement result of the interference level measured by the measurement unit to the C-RAN DU, wherein the measurement resource information is information indicating a radio resource of which uplink interference level is to be measured, wherein the transmission unit is configured to transmit the measurement result of the interference level measured by the measurement unit to the C-RAN DU when the measurement result of the interference level measured by the measurement unit satisfies a predetermined condition.
An electrochemical-type power supply, for use in marine environment, comprising: an electrochemical stack, configured to generate electric power, in the presence, internally, of an electrolytic fluid, a first tank, configured to contain electrolytic fluid at a first temperature; a second tank, configured to contain electrolytic fluid at a second temperature, lower than the first temperature, a thermostatic valve, configured to mix electrolytic fluid at a lower temperature with electrolytic fluid at a higher temperature, for generating a mixed electrolytic fluid to be introduced into the electrochemical stack at a controlled temperature for generating a desired electric power, said electrochemical power supply source further comprising an auxiliary tank, configured to contain electrolytic fluid at a third temperature, higher than said first temperature; wherein said thermostatic valve is configured to be connected to the auxiliary tank and to receive, at an input, the electrolytic fluid at said third temperature, as said electrolytic fluid at a higher temperature, for generating the mixed electrolytic fluid, in a given operating condition. an electrochemical stack, configured to generate electric power, in the presence, internally, of an electrolytic fluid, a first tank, configured to contain electrolytic fluid at a first temperature; a second tank, configured to contain electrolytic fluid at a second temperature, lower than the first temperature, a thermostatic valve, configured to mix electrolytic fluid at a lower temperature with electrolytic fluid at a higher temperature, for generating a mixed electrolytic fluid to be introduced into the electrochemical stack at a controlled temperature for generating a desired electric power, said electrochemical power supply source further comprising an auxiliary tank, configured to contain electrolytic fluid at a third temperature, higher than said first temperature; wherein said thermostatic valve is configured to be connected to the auxiliary tank and to receive, at an input, the electrolytic fluid at said third temperature, as said electrolytic fluid at a higher temperature, for generating the mixed electrolytic fluid, in a given operating condition.
A method comprising: receiving, at data processing hardware, measurement data (224, 230) from a position measurement system, the position measurement system comprising a nonius track (212b, 212d) and a master track (212a, 212c); determining, by the data processing hardware, that the measurement data (224, 230) comprises periodic distortion data; and modifying, by the data processing hardware, the measurement data (224, 230) by: decomposing the periodic distortion data into periodic components; and removing the periodic components from the measurement data (224, 230). receiving, at data processing hardware, measurement data (224, 230) from a position measurement system, the position measurement system comprising a nonius track (212b, 212d) and a master track (212a, 212c); determining, by the data processing hardware, that the measurement data (224, 230) comprises periodic distortion data; and modifying, by the data processing hardware, the measurement data (224, 230) by: decomposing the periodic distortion data into periodic components; and removing the periodic components from the measurement data (224, 230). decomposing the periodic distortion data into periodic components; and removing the periodic components from the measurement data (224, 230).
Heat exchange apparatus, comprising: - at least one heat exchanger comprising tube means provided with at least one inlet of a process fluid to be cooled and at least one outlet of the cooled process fluid; - ventilation means for generating a flow of a cooling gas passing through said tube means; - at least one evaporative body arranged to be traversed by said flow before said heat exchanger; - supply means for supplying an evaporative liquid to wet said evaporative body to humidify said flow; - at least one temperature sensor for measuring the temperature (Tout) of the process fluid at the outlet of said tube means; - control means configured to control said evaporative liquid supply means based on the temperature (Tout) measured by said temperature sensor characterized in that said control means is configured to receive a lower limit (Vinf) and an upper limit (Vsup) of the cooling gas flow and to control said ventilation means and said supply means based on the temperature (Tout) measured by said temperature sensor so that, when the flow of the cooling gas is higher than said lower limit (Vinf) and lower than said upper limit (Vsup) and the supply flow of the evaporative liquid is non-zero, if the measured temperature (Tout) is less than or equal to a predetermined value, then the flow of the cooling gas is lowered while the supply flow of the evaporative liquid is not lowered, and so that, when the flow of the cooling gas is equal to said lower limit (Vinf) and the supply flow of the evaporative liquid is non-zero, if the measured temperature (Tout) is less than or equal to a predetermined value, then the supply flow of the evaporative liquid is lowered while the flow of the cooling gas is not lowered, and so that, when the flow of the cooling gas is lower than said upper limit (Vsup) and higher than said lower limit (Vinf) and the supply flow of the evaporative liquid is non-zero, if the measured temperature (Tout) is greater than or equal to a predetermined value, then the flow of the cooling gas is increased, while the supply flow of the evaporative liquid is not increased, and so that, when the flow of the cooling gas is equal to said upper limit (Vsup) and the flow rate of the evaporative liquid is non-zero, if the measured temperature (Tout) is greater than or equal to a predetermined value, then the supply flow of the evaporative liquid is increased, while the flow of the cooling gas is not increased. - at least one heat exchanger comprising tube means provided with at least one inlet of a process fluid to be cooled and at least one outlet of the cooled process fluid; - ventilation means for generating a flow of a cooling gas passing through said tube means; - at least one evaporative body arranged to be traversed by said flow before said heat exchanger; - supply means for supplying an evaporative liquid to wet said evaporative body to humidify said flow; - at least one temperature sensor for measuring the temperature (Tout) of the process fluid at the outlet of said tube means; - control means configured to control said evaporative liquid supply means based on the temperature (Tout) measured by said temperature sensor
Multi chamber syringe unit (1; 10; 18; 19) comprising a longitudinal body (2; 20; 28; 29) with a side wall (21; 210; 218; 219), a distal end side (23; 230; 238; 239), a proximal end side (22; 220; 228; 229) opposite to the distal end side (23; 230; 238; 239), an interior limited by the side wall (21; 210; 218; 219) between the distal end side (23; 230; 238; 239) and the proximal end side (22; 220; 228; 229) and a distal opening arranged in the distal end side (23; 230; 238; 239) for providing a liquid out of the body (2; 20; 28; 29); a separating element (3; 30; 38; 39) arranged in the interior of the body (2; 20; 28; 29) such that a distal chamber (24; 240; 248; 249) and a proximal chamber (25; 250; 258; 259) are formed in the interior of the body (2; 20; 28; 29), wherein the separating element (3; 30; 38; 39) seals the distal chamber (24; 240; 248; 249) from the proximal chamber (25; 250; 258; 259); a bypass arrangement (26; 260; 268; 269) provided in the side wall (21; 210; 218; 219) of the distal chamber (24; 240; 248; 249) of the body (2; 20; 28; 29); a first pharmaceutical liquid (7; 70; 78; 79) arranged in the distal chamber (24; 240; 248; 249) of the body (2; 20; 28; 29); and a second pharmaceutical liquid (8; 80; 88; 89) arranged in the proximal chamber (25; 250; 258; 259) of the body (2; 20; 28; 29), wherein the bypass arrangement (26; 260; 268; 269) is located adjacent to the distal end side (23; 230; 238; 239) of the body (2; 20; 28; 29), and the body (2; 20; 28; 29) and the separating element (3; 30; 38; 39) are arranged such that the distal chamber (24; 240; 248; 249) is essentially emptied when the separating element (3; 30; 38; 39) is moved to the bypass arrangement (26; 260; 268; 269), characterized in that the first pharmaceutical liquid (7; 70; 78; 79) comprises an enzyme being hyaluronidase and the second pharmaceutical liquid (8; 80; 88; 89) comprises a therapeutic active ingredient, and the first pharmaceutical liquid (7; 70; 78; 79) and the second pharmaceutical liquid (8; 80; 88; 89) together form a gel such as a hydrogel or complex upon mixing.
Submarine having at least one ejection tube in which a closed expansion body is arranged in the ejection direction upstream of an object mounted in the ejection tube, which expansion body, when filling with a gas, can be expanded in the ejection direction of the object, wherein means for hauling in the expanded expansion body are provided.
An angle stable implant system having at least one surgical bone screw as well as having a bone plate which has at least one passage opening for the bone screw, wherein the bone screw comprises: a shaft having a bone thread; blocking means for cooperating with the bone plate; and a screw head having a rotationally symmetrical enveloping contour, wherein the blocking means have a groove structure which is formed at the screw head and which has at least one flank structure section extending in the peripheral direction, and wherein the flank section of the groove structure extending in the peripheral direction is interrupted at least once in the peripheral direction such that at least one elevated portion results for blocking cooperation with the bone plate, characterized in that the enveloping contour has a constant progression in the axial direction that is described by a curved mathematical function rotated about a central longitudinal axis of the bone screw. a shaft having a bone thread; blocking means for cooperating with the bone plate; and a screw head having a rotationally symmetrical enveloping contour, wherein the blocking means have a groove structure which is formed at the screw head and which has at least one flank structure section extending in the peripheral direction, and wherein the flank section of the groove structure extending in the peripheral direction is interrupted at least once in the peripheral direction such that at least one elevated portion results for blocking cooperation with the bone plate, characterized in that the enveloping contour has a constant progression in the axial direction that is described by a curved mathematical function rotated about a central longitudinal axis of the bone screw.
Valve, with at least one valve space and a valve sealing element disposed in said valve space, wherein the valve space is assigned an inlet, a first outlet and a second outlet and wherein the valve sealing body is able to be moved to the first outlet or the second outlet by a magnetic actuation device, wherein a circumferential roll track for the valve sealing element is provided between the first outlet and the second outlet and wherein a wall delimiting the valve space is formed at least in sections on the outside along the roll track, characterised in that the valve sealing element, at least in the region of the roll track, is able to be moved by means of the magnetic actuation device along a valve axis and that the circumferential roll track runs in a circumferential direction relative to the valve axis.
A flexible coupling assembly for a power transmission system, comprising: a power transmitting body configured to transmit power between opposed first and second rotating members, defining: an axis; and a longitudinally extending cavity; a first flanged portion for coupling the body to the first rotating member; and a second flanged portion for coupling the body to the second rotating member; a quill shaft configured for resisting an axial load between the rotating members, wherein the quill shaft extends through the cavity of the power transmitting body and is fixed to the first and second flanged portions, wherein the power transmitting body defines a first diaphragm disc and a second diaphragm disc, and characterised in that the first diaphragm disc is coupled to the first flanged portion at its inner hub portion and the second diaphragm disc is coupled to the second flanged portion at its inner hub portion. a power transmitting body configured to transmit power between opposed first and second rotating members, defining: an axis; and a longitudinally extending cavity; a first flanged portion for coupling the body to the first rotating member; and a second flanged portion for coupling the body to the second rotating member; an axis; and a longitudinally extending cavity; a first flanged portion for coupling the body to the first rotating member; and a second flanged portion for coupling the body to the second rotating member; a quill shaft configured for resisting an axial load between the rotating members, wherein the quill shaft extends through the cavity of the power transmitting body and is fixed to the first and second flanged portions, wherein the power transmitting body defines a first diaphragm disc and a second diaphragm disc, and characterised in that the first diaphragm disc is coupled to the first flanged portion at its inner hub portion and the second diaphragm disc is coupled to the second flanged portion at its inner hub portion.
A passive containment cooling system comprising: a thermal exchange pipe including, an outer pipe having a first outer pipe end and a second outer pipe end, the first outer pipe end being closed and the second outer pipe end being open, the first outer pipe end being configured to be used within a primary containment vessel of a boiling water reactor, the second outer pipe end configured to extend into a reactor cavity pool such that the outer pipe will be in fluid communication with the reactor cavity pool, the outer pipe including, a pipe wall defining an opening therein, and an inner pipe at least partially within the outer pipe, the inner pipe having a first inner pipe end and a second inner pipe end, the first inner pipe end and the second inner pipe end being open, and the second inner pipe end extending out of the outer pipe and configured to extend into the reactor cavity pool such that the second inner pipe end will be in fluid communication with the reactor cavity pool, the inner pipe including, a curved portion between the first inner pipe end and the second inner pipe end, the curved portion extending through and past the opening in the pipe wall and configured therefore to extend into the reactor cavity pool.
A collar for a wearer, comprising: a pad; a pod; a panel having an outer surface and an inner surface; an inflatable member configured to couple to the pad and the panel, and apply an inward force to the wearer; wherein a position of the inflatable member relative to the panel is adjustable; wherein the inflatable member is further coupled to the pod that directs the inward force that is applied to the neck of the user, and wherein the pad comprises a pocket that is sized and dimensioned to receive the pod.
A biodegradable polyester foil comprising: i) from 80 to 95% by weight, based on the total weight of components i to ii, of a biodegradable polyester based on aliphatic and aromatic dicarboxylic acids and on an aliphatic dihydroxy compound; ii) from 5 to 20% by weight, based on the total weight of components i to ii, of polyhydroxyalkanoate; iii) from 10 to 25% by weight, based on the total weight of components i to vi, of calcium carbonate; iv) from 3 to 15% by weight, based on the total weight of components i to vi, of talc; v) from 0 to 30% by weight, based on the total weight of components i to vi, of polylactic acid and/or starch; vi) from 0 to 2% by weight, based on the total weight of components i to vi, of 2-(4,6-bisbiphenyl-4-yl-1,3,5-triazin-2-yl)-5-(2-ethyl-(n)-hexyloxy)phenol. i) from 80 to 95% by weight, based on the total weight of components i to ii, of a biodegradable polyester based on aliphatic and aromatic dicarboxylic acids and on an aliphatic dihydroxy compound; ii) from 5 to 20% by weight, based on the total weight of components i to ii, of polyhydroxyalkanoate; iii) from 10 to 25% by weight, based on the total weight of components i to vi, of calcium carbonate; iv) from 3 to 15% by weight, based on the total weight of components i to vi, of talc; v) from 0 to 30% by weight, based on the total weight of components i to vi, of polylactic acid and/or starch; vi) from 0 to 2% by weight, based on the total weight of components i to vi, of 2-(4,6-bisbiphenyl-4-yl-1,3,5-triazin-2-yl)-5-(2-ethyl-(n)-hexyloxy)phenol.