mhurhangee/patent-ind-claim-en huggingface dataset:
Use of an unmanned aerial vehicle and a control station for testing the accuracy of the automatic positioning means of a signal tracking antenna during a satellite signal searching and/or tracking operation; wherein the platform, such as a ship, on which the signal tracking antenna is mounted is kept stationary during the testing operation; wherein the unmanned aerial vehicle is adapted for: - receiving a test flight route from the control station , wherein the test flight route is configured for simulating waves or other mobile platform motions; - automatically navigating the received test flight route with the aid of a received Global Navigation Satellite System signal; and - transmitting, while navigating a flight route comprising the received test flight route, a signal configured for the signal tracking antenna to search for and/or to track; wherein the control station is adapted for: - transmitting the test flight route signal to the unmanned aerial vehicle , wherein the test flight route is configured for simulating waves or other mobile platform motions; - receiving positioning data from the automatic positioning means during a predefined test period; and - receiving data, such as signal strength data, from the signal tracking antenna, about the received signal from the unmanned aerial vehicle during said predefined test period. - receiving a test flight route from the control station , wherein the test flight route is configured for simulating waves or other mobile platform motions; - automatically navigating the received test flight route with the aid of a received Global Navigation Satellite System signal; and - transmitting, while navigating a flight route comprising the received test flight route, a signal configured for the signal tracking antenna to search for and/or to track; - transmitting the test flight route signal to the unmanned aerial vehicle , wherein the test flight route is configured for simulating waves or other mobile platform motions; - receiving positioning data from the automatic positioning means during a predefined test period; and - receiving data, such as signal strength data, from the signal tracking antenna, about the received signal from the unmanned aerial vehicle during said predefined test period.
Valve train assembly (80; 100) comprising: - a number of valves each having a valve stem ; - at least one main camshaft with a number of main cams , at least one main cam corresponding to each valve ; - a number of main rocker arms , each main rocker arm corresponding to a valve and having a valve stem actuation portion, a pivot axis parallel to the main cam shaft and a main cam follower for following the corresponding main cam , wherein the valve stem actuation portion, the pivot axis and the main cam follower are arranged along the length of the main rocker arm and at a distance from each other; - at least one auxiliary cam arranged on the main camshaft ; - at least one auxiliary cam follower for each auxiliary cam and for following said auxiliary cam , wherein each auxiliary cam follower is movable arranged on one of the main rocker arms between a first and a second position; and - a latch arranged on the respective main rocker arm for locking the auxiliary cam follower in the first position; - a camshaft carrier (85; 104) for accommodating the main camshaft ; wherein at least one rotatable control rod (81; 101) for controlling the latches between the first and second position, wherein the at least one control rod (81; 101) comprises for each latch a transmission element (82, 83; 102, 103), which transmission element (82, 83; 102, 103) converts the torque in the at least one control rod (81; 101) into a control force tangential to the control rod (81; 101) to control movement of the latch between the first and second position, characterized in that the transmission element (82, 83; 102, 103) comprises a control cam (82; 102) arranged on the control rod (81; 101) and a curved leaf spring (83; 103) arranged between the control cam (82; 102) and latch , wherein one free end (86; 107) of the curved spring leaf (83; 103) is arranged to the camshaft carrier (85; 104). - a number of valves each having a valve stem ; - at least one main camshaft with a number of main cams , at least one main cam corresponding to each valve ; - a number of main rocker arms , each main rocker arm corresponding to a valve and having a valve stem actuation portion, a pivot axis parallel to the main cam shaft and a main cam follower for following the corresponding main cam , wherein the valve stem actuation portion, the pivot axis and the main cam follower are arranged along the length of the main rocker arm and at a distance from each other; - at least one auxiliary cam arranged on the main camshaft ; - at least one auxiliary cam follower for each auxiliary cam and for following said auxiliary cam , wherein each auxiliary cam follower is movable arranged on one of the main rocker arms between a first and a second position; and - a latch arranged on the respective main rocker arm for locking the auxiliary cam follower in the first position; - a camshaft carrier (85; 104) for accommodating the main camshaft ;
A method for producing a polyorganosiloxane resin composition, the method comprising: the step (a1) of mixing a thermally conductive filler having a particle size distribution having a single peak, and a surface treatment agent containing a siloxane with each other, and the step (b) of mixing the mixture of the thermally conductive filler and the surface treatment agent obtained in the step (a1) with a polysiloxane resin, wherein the surface treatment agent comprises a siloxane compound represented by the following general formula : wherein: R 1 : is a group having an alkoxysilyl group having 1 to 4 carbon atoms, R 2 : is a siloxane represented by the following general formula : wherein R 4 each independently is a monovalent hydrocarbon group having 1 to 12 carbon atoms, Y is a group selected from the group consisting of R 1 , R 4 , and an aliphatic unsaturated group, and d is an integer of 2 to 500 or a monovalent hydrocarbon group having 6 to 18 carbon atoms, X: each independently is a divalent hydrocarbon group having 2 to 10 carbon atoms, a and b: each independently is an integer of 1 or more, c: is an integer of 0 or more, a + b + c: is an integer of 4 or more, and R 3 : each independently is a monovalent hydrocarbon group having 1 to 6 carbon atoms or a hydrogen atom. the step (a1) of mixing a thermally conductive filler having a particle size distribution having a single peak, and a surface treatment agent containing a siloxane with each other, and the step (b) of mixing the mixture of the thermally conductive filler and the surface treatment agent obtained in the step (a1) with a polysiloxane resin, wherein the surface treatment agent comprises a siloxane compound represented by the following general formula : R 1 : is a group having an alkoxysilyl group having 1 to 4 carbon atoms, R 2 : is a siloxane represented by the following general formula : wherein R 4 each independently is a monovalent hydrocarbon group having 1 to 12 carbon atoms, Y is a group selected from the group consisting of R 1 , R 4 , and an aliphatic unsaturated group, and d is an integer of 2 to 500 or a monovalent hydrocarbon group having 6 to 18 carbon atoms, X: each independently is a divalent hydrocarbon group having 2 to 10 carbon atoms, a and b: each independently is an integer of 1 or more, c: is an integer of 0 or more, a + b + c: is an integer of 4 or more, and R 3 : each independently is a monovalent hydrocarbon group having 1 to 6 carbon atoms or a hydrogen atom.
A solid composition comprising: (a) from 30 to 65% by weight of polyethylene glycol, (b) from 0 to 40% by weight of a C 8 -C 22 -alkyl polyalkoxylate comprising at least 40 alkoxylate units, (c) from 0.5 to 15% by weight of free fragrance, (d) from 0.1 to 15% by weight of encapsulated fragrance, and (e) from 1 to 35% by weight of an alkaline metal salt, alkaline earth metal salt or salt of an inorganic or C 1 -C 6 -alkyl organic acid, or mixture thereof, wherein said polyethylene glycol has a molecular weight from 4,000 to 100,000 mass units. (a) from 30 to 65% by weight of polyethylene glycol, (b) from 0 to 40% by weight of a C 8 -C 22 -alkyl polyalkoxylate comprising at least 40 alkoxylate units, (c) from 0.5 to 15% by weight of free fragrance, (d) from 0.1 to 15% by weight of encapsulated fragrance, and (e) from 1 to 35% by weight of an alkaline metal salt, alkaline earth metal salt or salt of an inorganic or C 1 -C 6 -alkyl organic acid, or mixture thereof, wherein said polyethylene glycol has a molecular weight from 4,000 to 100,000 mass units.
Half-shell clamping sleeve for electrically shielding a cable in a round plug connector , comprising: a hollow, metal semi-cylinder ; wherein a groove is formed on a first end face of the semi-cylinder in the longitudinal axis direction of the semi-cylinder ; wherein a second, opposite end face of the semi-cylinder is formed as a clamping sleeve ; wherein the clamping sleeve has at least one clamping arm , and wherein the part of the at least one clamping arm , which forms the second end face of the semi-cylinder , is elastically movable radially to the direction of the longitudinal axis of the semi-cylinder ; and wherein the half-shell clamping sleeve is configured in such a way that, when assembled in a round plug connector , the first end face of the semi-cylinder can be oriented form-fittingly with a connection element of the round plug connector , a cable connected to the connection element is mechanically fixable by means of the clamping sleeve and the clamping sleeve is electrically connectable to a shielding braid of the cable, characterised in that the groove has a projection in the circumferential direction of the semi-cylinder and a complementary projection is latchable with the projection of the groove. a hollow, metal semi-cylinder ; wherein a groove is formed on a first end face of the semi-cylinder in the longitudinal axis direction of the semi-cylinder ; wherein a second, opposite end face of the semi-cylinder is formed as a clamping sleeve ; wherein the clamping sleeve has at least one clamping arm , and wherein the part of the at least one clamping arm , which forms the second end face of the semi-cylinder , is elastically movable radially to the direction of the longitudinal axis of the semi-cylinder ; and wherein the half-shell clamping sleeve is configured in such a way that, when assembled in a round plug connector , the first end face of the semi-cylinder can be oriented form-fittingly with a connection element of the round plug connector , a cable connected to the connection element is mechanically fixable by means of the clamping sleeve and the clamping sleeve is electrically connectable to a shielding braid of the cable, characterised in that the groove has a projection in the circumferential direction of the semi-cylinder and a complementary projection is latchable with the projection of the groove.
Electric train coupling having two electric train coupling halves , which train coupling halves can be coupled to one another and which jointly and/or each have a large number of electrically conductive contact elements each extending along an axial direction (X); wherein each electric train coupling half comprises an electrically insulating housing which encloses the electrically conductive contact element or elements and has an electrically insulating cover covering the front face of the electrically conductive contact element or elements ; characterized in that the cover of both electric train coupling halves in each case has one or more plug-in openings which, in the axial direction (X), are aligned with the electrically conductive contact element or elements and, in the axial direction (X), is displaceable between an uncoupled position, in which the electrically conductive contact element or elements is/are positioned in the axial direction (X) behind the plug-in openings within the housing , and a coupled position, in which the electrically conductive contact element or elements are positioned so as to protrude out of the housing through the cover , penetrating the plug-in openings in the axial direction (X), wherein the cover comprises a rigid main body with at least one passage and, on the side facing away from the at least one contact element is covered with an elastic seal , which has an aperture for each contact element which, in the axial direction (X), is aligned with the corresponding contact element and the passage or a part of the passage , so that the aperture and the passage jointly form a plug-in opening . each electric train coupling half comprises an electrically insulating housing which encloses the electrically conductive contact element or elements and has an electrically insulating cover covering the front face of the electrically conductive contact element or elements ; characterized in that the cover of both electric train coupling halves in each case has one or more plug-in openings which, in the axial direction (X), are aligned with the electrically conductive contact element or elements and, in the axial direction (X), is displaceable between an uncoupled position, in which the electrically conductive contact element or elements is/are positioned in the axial direction (X) behind the plug-in openings within the housing , and a coupled position, in which the electrically conductive contact element or elements are positioned so as to protrude out of the housing through the cover , penetrating the plug-in openings in the axial direction (X), wherein the cover comprises a rigid main body with at least one passage and, on the side facing away from the at least one contact element is covered with an elastic seal , which has an aperture for each contact element which, in the axial direction (X), is aligned with the corresponding contact element and the passage or a part of the passage , so that the aperture and the passage jointly form a plug-in opening .
A method for a user equipment, UE, to control uplink transmission power in a wireless communication system, the method comprising: reporting (S1505), to a base station , UE capability information related to uplink transmission power; receiving (S15010), from the base station , indication information for transmission power of a first uplink channel and indication information for transmission power of a second uplink channel , in response to the reporting (S1505); transmitting (S1515) the first uplink channel based on the indication information for the transmission power of the first uplink channel ; and transmitting (S1515) the second uplink channel based on the indication information for the transmission power of the second uplink channel, consecutively to the transmission of the first uplink channel , wherein a transient period based on a difference between the transmission power of the first uplink channel and the transmission power of the second uplink channel is configured to be included in any one of a first time region in which the first uplink channel is transmitted or a second time region in which the second uplink channel is transmitted. reporting (S1505), to a base station , UE capability information related to uplink transmission power; receiving (S15010), from the base station , indication information for transmission power of a first uplink channel and indication information for transmission power of a second uplink channel , in response to the reporting (S1505); transmitting (S1515) the first uplink channel based on the indication information for the transmission power of the first uplink channel ; and transmitting (S1515) the second uplink channel based on the indication information for the transmission power of the second uplink channel, consecutively to the transmission of the first uplink channel , wherein a transient period based on a difference between the transmission power of the first uplink channel and the transmission power of the second uplink channel is configured to be included in any one of a first time region in which the first uplink channel is transmitted or a second time region in which the second uplink channel is transmitted.
Use of polyoxyalkylenes of the formula (I) as shrinkage-reducing agents for mineral binders and building materials produced therefrom, where R is independently an a-valent, linear or branched, saturated, monounsaturated or polyunsaturated, aliphatic, cycloaliphatic or aromatic hydrocarbyl radical having 3 to 38 carbon atoms, where the hydrocarbyl radical is substituted by a polyoxyalkylene radicals A, a = 1 to 4, n = 0 to 40, m = 0 to 40, with the proviso that the sum total of n and m = 4 to 80, where the units that n and m refer to are distributed in the polyether chain either in blocks or randomly and the units that n and m refer to constitute the mean values of the possible statistical distribution of the actual structures present. R is independently an a-valent, linear or branched, saturated, monounsaturated or polyunsaturated, aliphatic, cycloaliphatic or aromatic hydrocarbyl radical having 3 to 38 carbon atoms, where the hydrocarbyl radical is substituted by a polyoxyalkylene radicals A, a = 1 to 4, n = 0 to 40, m = 0 to 40,
A regulator system for a mechanical timepiece based on the magnetic interaction between a resonator and an escapement wheel , said interaction creating radial and tangential forces acting on the escapement wheel and generating torques therein, the regulator system comprising: a tuning fork resonator provided with two arms each carrying a permanent magnet and wherein the magnetic flux of said magnets is directed towards the outside of the tuning fork at one arm and at the other towards the inside of the tuning fork, and an escapement wheel carrying a ferromagnetic structure in the shape of a crown gear, provided with an internal toothing and an external toothing each cooperating magnetically with an arm of said resonator, the regulator system is arranged with said internal and external toothing disposed so that if a tooth of said internal toothing is opposite the magnet of one arm of the tuning fork, the magnet located on the other arm of the tuning fork is located between two teeth of said external toothing and vice versa, so that the torques due to said tangential forces act in opposite directions and cancel each other out when the system is started when a torque is applied to the escapement wheel by a driving member while the regulator system is still stationary in its starting position. a tuning fork resonator provided with two arms each carrying a permanent magnet and wherein the magnetic flux of said magnets is directed towards the outside of the tuning fork at one arm and at the other towards the inside of the tuning fork, and an escapement wheel carrying a ferromagnetic structure in the shape of a crown gear, provided with an internal toothing and an external toothing each cooperating magnetically with an arm of said resonator, the regulator system is arranged with said internal and external toothing disposed so that if a tooth of said internal toothing is opposite the magnet of one arm of the tuning fork, the magnet located on the other arm of the tuning fork is located between two teeth of said external toothing and vice versa, so that the torques due to said tangential forces act in opposite directions and cancel each other out when the system is started when a torque is applied to the escapement wheel by a driving member while the regulator system is still stationary in its starting position.
Cylinder head for an internal combustion engine which comprises a crankcase and, rotatably mounted therein, a crankshaft on which connecting rods each connected to a piston are articulated, wherein the piston is movable in a cylinder covered by the cylinder head with the formation of a combustion chamber, comprising at least one camshaft which, for each cylinder, controls at least one gas exchange valve, in particular an inlet valve and an outlet valve, wherein an injector can be inserted into a central aperture which is formed as a region separate from lubricating-oil-guiding and/or coolant-guiding spaces, wherein the aperture extends from the combustion chamber through the cylinder head, and wherein the injector dome is guided by means of a separate sleeve , characterized in that , in the region of the cylinder head that faces the combustion chamber, a TMF support ring [injector bore ring; thermomechanical fatigue (TMF)] is arranged concentrically around the injector sleeve in such a way that it terminates substantially flush with the end of the injector sleeve that projects into the combustion chamber and with the cylinder head base plate.
A composition comprising: i. 0.01 to 0.2 % w/w trypsin; ii. 50 to 70 % w/w glycerol; iii. 0.002 to 0.1 % w/w hyaluronic acid; and iv. 0.01 to 0.2 % w/w salt comprising a divalent cation. i. 0.01 to 0.2 % w/w trypsin; ii. 50 to 70 % w/w glycerol; iii. 0.002 to 0.1 % w/w hyaluronic acid; and iv. 0.01 to 0.2 % w/w salt comprising a divalent cation.
A fluid interaction arrangement , comprising a quick connection device and a fluid interaction device for establishing an interaction with a fluid , particularly a brake fluid or a fuel fluid , the fluid interaction device having a housing member which accommodates a fluid interaction portion , the fluid interaction portion being adapted to interact with a fluid within the housing member , wherein the housing member further comprises a connection portion which is connected to the quick connection device , wherein the fluid interaction portion includes a sensor arrangement , in particular a pressure sensor and/or a temperature sensor characterized in that the connection portion has been formed as a weldable, tubular end portion so that the housing member is connected to a joining portion of the quick connection device by means of a welded joint , wherein the tubular end portion is rotationally symmetric along a joining axis , wherein the joining portion is an annular groove , wherein the welded joint is a friction welded joint .