mhurhangee/patent-ind-claim-en huggingface dataset:
A safety closure comprising: an adaptor defining an axial bore and an outer radial surface, the outer radial surface defining a first plurality of radial ridges arranged in discrete groupings and a plurality of gaps extending in an axial direction between groupings of the first radial ridges; a cap including a top wall , a sidewall , and a bottom , the sidewall having an outer radial surface and an inner radial surface, the inner radial surface defining a receiving space , the cap having a second plurality of radial ridges arranged in discrete groupings on the inner radial surface, the receiving space being arranged to receive an upper portion of the adaptor and the second radial ridges being arranged to selectively mate with and engage the first plurality of radial ridges of the adaptor to secure the cap on the adaptor, the bottom having a locking channel, slot, or notch ; and a locking system attached to the cap and including a locking arm attached to the cap with a lock piece arranged to selectively protrude through the locking channel, slot, or notch in the bottom of the cap and into the receiving space of the cap to lock the first plurality of radial ridges in engagement with the second plurality of radial ridges , characterized in that the lock piece is configured to engage a second end of at least one of the first plurality of radial ridges to prevent the cap from moving from an engaged position to a disengaged position. an adaptor defining an axial bore and an outer radial surface, the outer radial surface defining a first plurality of radial ridges arranged in discrete groupings and a plurality of gaps extending in an axial direction between groupings of the first radial ridges; a cap including a top wall , a sidewall , and a bottom , the sidewall having an outer radial surface and an inner radial surface, the inner radial surface defining a receiving space , the cap having a second plurality of radial ridges arranged in discrete groupings on the inner radial surface, the receiving space being arranged to receive an upper portion of the adaptor and the second radial ridges being arranged to selectively mate with and engage the first plurality of radial ridges of the adaptor to secure the cap on the adaptor, the bottom having a locking channel, slot, or notch ; and a locking system attached to the cap and including a locking arm attached to the cap with a lock piece arranged to selectively protrude through the locking channel, slot, or notch in the bottom of the cap and into the receiving space of the cap to lock the first plurality of radial ridges in engagement with the second plurality of radial ridges , characterized in that the lock piece is configured to engage a second end of at least one of the first plurality of radial ridges to prevent the cap from moving from an engaged position to a disengaged position.
A method for multicasting a plurality of original data packets to a plurality of receivers (UE1, UE2, UE3) in a cell of a cellular communications system, the method comprising the steps in the cellular communications system of: multicasting a set (S1, S2, S3) of original data packets and a single network coded data packet (C1, C2, C3) associated with the set of original data packets to the plurality of receivers in the cell, wherein the set of original data packets consists of a number of original data packets of the plurality of original data packets; wherein the number of original data packets in the set of original data packets is dependent on a multicast data packet loss probability for transmitting data packets to one or more of the plurality of receivers in the cell, wherein the single network coded data packet is a linear combination of two or more original data packets in the set of original data packets, and wherein the network coded data packet is multicast using a modulation and coding rate lower than the modulation and coding rate used for multicasting the set of original data packets. multicasting a set (S1, S2, S3) of original data packets and a single network coded data packet (C1, C2, C3) associated with the set of original data packets to the plurality of receivers in the cell, wherein the set of original data packets consists of a number of original data packets of the plurality of original data packets; wherein the number of original data packets in the set of original data packets is dependent on a multicast data packet loss probability for transmitting data packets to one or more of the plurality of receivers in the cell, wherein the single network coded data packet is a linear combination of two or more original data packets in the set of original data packets, and wherein the network coded data packet is multicast using a modulation and coding rate lower than the modulation and coding rate used for multicasting the set of original data packets.
Camera module comprising an objective with an electrical interface , and comprising an objective holder with means for electrically making contact with the objective in the region of the electrical interface , wherein the means for electrically making contact are furthermore connected to an electronic system, in particular to a printed circuit board , of the camera module , characterized in that the means for electrically making contact comprise two contact rings having contact springs , which form a first and a second pole and are electrically insulated by an interposed spacer , wherein the two contact rings are movably supported via the objective holder and the spacer .
A light emitting device comprising: a light emitting element having a light emitting surface from which a light is emitted; and a sealing member provided on the light emitting surface of the light emitting element to cover the light emitting surface and having a light output surface via which the light is output from the sealing member , the sealing member comprising a light-transmissive material containing a fluorescent material to convert a wavelength of the light emitted from the light emitting element ; characterized by the light output surface being curved to have a concave shape; and a first film disposed on a part of the light output surface of the sealing member to partially reflect the light emitted from the light emitting element . a light emitting element having a light emitting surface from which a light is emitted; and a sealing member provided on the light emitting surface of the light emitting element to cover the light emitting surface and having a light output surface via which the light is output from the sealing member , the sealing member comprising a light-transmissive material containing a fluorescent material to convert a wavelength of the light emitted from the light emitting element ; characterized by the light output surface being curved to have a concave shape; and a first film disposed on a part of the light output surface of the sealing member to partially reflect the light emitted from the light emitting element .
Game controller having an actuator rotationally movable relative to a fixed part , so as to simulate a control of the rotation of a steering column of a simulated vehicle, the said game controller implementing means for detecting the angle of the rotational movement of the said actuator comprising at least one Hall effect or magnetoresistive effect detection unit, characterised in that the said at least one Hall effect or magnetoresistive effect detection unit consists of at least two elements, including a permanent magnet and a multiaxial magnetic sensor measuring the characteristics of the magnetic field of the said magnet , and in that , at least during the rotation of the said actuator , a first of the said elements is rotationally integral with the said actuator and a second of the said elements is rotationally integral with the said fixed part , and in that the said game controller implements a force return and/or return to neutral position system of the actuator , the said magnet being substantially aligned with the axis of rotation of a shaft of the said force feedback system and/or of return to neutral position through which the said system acts on the actuator .
A formulation of fuel for diesel engines composed of the following ingredients: (i) group 1 components consisting of 0,1-2 volume% nitromethane CH 3 NO 2 and 0,1-2 volume% propanone CH 3 -CO-CH 3 and 0,5-3 volume% 2-hexyl nitrate and 0,5-3 volume% amyl nitrate CH 3 (CH 2 )4ONO 2 and 0,5-3 volume% acetaldehyde CH 3 CHO and 0,5-3 volume% Cyclohexane C 6 H 12 and 2-10 volume% diethyl carbonate; (ii) group 2 components consisting of 3-25 volume% camellia sasanqua oil and 3-20 volume% brassica carinata oil and 3-12 volume% jojoba oil and 3-15 volume% jatropha curcas; (iii) standard diesel fuel (i) group 1 components consisting of 0,1-2 volume% nitromethane CH 3 NO 2 and 0,1-2 volume% propanone CH 3 -CO-CH 3 and 0,5-3 volume% 2-hexyl nitrate and 0,5-3 volume% amyl nitrate CH 3 (CH 2 )4ONO 2 and 0,5-3 volume% acetaldehyde CH 3 CHO and 0,5-3 volume% Cyclohexane C 6 H 12 and 2-10 volume% diethyl carbonate; (ii) group 2 components consisting of 3-25 volume% camellia sasanqua oil and 3-20 volume% brassica carinata oil and 3-12 volume% jojoba oil and 3-15 volume% jatropha curcas; (iii) standard diesel fuel
Radial turbo compressor (TCO) comprising at least one impeller (IP) and at least one casing (CS), wherein said impeller (IP) is rotatable about an axis (X), wherein said casing (CS) comprises an inlet (IL) upstream said impeller (IP) said inlet (IL) comprising an inlet flange (IF) to be mounted to a process gas pipe (PGP), wherein said casing (CS) comprises an outlet (OL) downstream said impeller (IP) comprising an outlet flange (OF), wherein said casing (CS) comprises an outlet volute (VL) extending about said axis (X) downstream said impeller (IP) and upstream said outlet (OL), wherein said radial turbo compressor (TCO) comprises a drive unit (DRU) driving said impeller (IP) and being mounted to said casing (CS), wherein when in use said casing (CS) is exclusively supported by said inlet flange (IF) and said outlet flange (OF) and wherein said casing (CS) comprises a drive unit flange (DRF), wherein said drive unit (DRU) comprises a fixation flange (FF), wherein said drive unit flange (DRF) and said fixation flange (FF) are fixedly connected to each other by fixation elements (FE), wherein said drive unit (DRU) is exclusively supported by said fixation flange (FF), characterised in that said casing (CS) comprises ribs (RB) in order to increase the bending stiffness of said casing (CS), said ribs (RB) being distributed along the circumference of said casing, extending axially at least partly between said drive unit flange (DRF) and said inlet flange (IF), and extending in a radial direction along a rib's (RB) height.
A method for performing a power scaling, the method performed by a user equipment, UE, and comprising: determining, by the UE configured with dual connectivity to a master cell group, MCG, and a secondary cell group, SCG, a first power for a first transmission in a first subframe toward the MCG; determining a second power for a second transmission toward the SCG; and scaling down the second power for the second transmission toward the SCG based on that a total power related to the MCG and the SCG exceeds a maximum power and based on that the first transmission toward the MCG in the first subframe is partially overlapped in time with the second transmission toward the SCG, wherein the second transmission includes transmitting a physical random access channel, PRACH, and the second power is for transmitting the PRACH, wherein based on that the second power is scaled down by more than a value, the second transmission is dropped, and wherein based on that the second power is not scaled down by more than the value, the second transmission is performed. determining, by the UE configured with dual connectivity to a master cell group, MCG, and a secondary cell group, SCG, a first power for a first transmission in a first subframe toward the MCG; determining a second power for a second transmission toward the SCG; and scaling down the second power for the second transmission toward the SCG based on that a total power related to the MCG and the SCG exceeds a maximum power and based on that the first transmission toward the MCG in the first subframe is partially overlapped in time with the second transmission toward the SCG, wherein the second transmission includes transmitting a physical random access channel, PRACH, and the second power is for transmitting the PRACH, wherein based on that the second power is scaled down by more than a value, the second transmission is dropped, and wherein based on that the second power is not scaled down by more than the value, the second transmission is performed.
A ramp assembly for a vehicle, comprising: a ramp for supporting one or more wheels of a vehicle and providing a bridge over stepped terrain on which the wheels of the vehicle can travel, wherein the ramp is arranged to be movable between a first configuration in which the ramp is stowed in the ramp assembly, a second configuration in which the ramp extends from the ramp assembly, and a third configuration in which the ramp is arranged to support the wheels of the vehicle as it travels over the stepped terrain; a drive mechanism for driving motion of the ramp comprising a conveyor belt and one or more drive gears for driving the conveyor belt; and a carriage coupling the conveyor belt to the ramp, the carriage having a secondary actuation system to enable rotation of the ramp about a pivot, and a primary actuation system to enable linear movement of the carriage along the ramp; the apparatus further comprising a control module for controlling the drive mechanism and the carriage such that a point of coupling of the carriage to the conveyor belt is driven around a curvilinear loop and the ramp is driven in a cycle from the first configuration to the second configuration to the third configuration to the first configuration. a ramp for supporting one or more wheels of a vehicle and providing a bridge over stepped terrain on which the wheels of the vehicle can travel, wherein the ramp is arranged to be movable between a first configuration in which the ramp is stowed in the ramp assembly, a second configuration in which the ramp extends from the ramp assembly, and a third configuration in which the ramp is arranged to support the wheels of the vehicle as it travels over the stepped terrain; a drive mechanism for driving motion of the ramp comprising a conveyor belt and one or more drive gears for driving the conveyor belt; and a carriage coupling the conveyor belt to the ramp, the carriage having a secondary actuation system to enable rotation of the ramp about a pivot, and a primary actuation system to enable linear movement of the carriage along the ramp; the apparatus further comprising a control module for controlling the drive mechanism and the carriage such that a point of coupling of the carriage to the conveyor belt is driven around a curvilinear loop and the ramp is driven in a cycle from the first configuration to the second configuration to the third configuration to the first configuration.
A method of preventing surge in a dynamic compressor , the method comprising the steps of: providing a surge valve having an adjustable opening for increasing the flow through a dynamic compressor ; sensing process conditions in the dynamic compressor to determine a compressor load variable; estimating a process disturbance model using the compressor load variable; and initiating a closed loop control response to open the surge valve based on the process disturbance model, wherein the closed loop control response is initiated by opening the surge valve at a rate as a function of a compressor dynamic operating point distance from a surge limit line and wherein the surge valve is opened in a step response or a ramp response. providing a surge valve having an adjustable opening for increasing the flow through a dynamic compressor ; sensing process conditions in the dynamic compressor to determine a compressor load variable; estimating a process disturbance model using the compressor load variable; and initiating a closed loop control response to open the surge valve based on the process disturbance model, wherein the closed loop control response is initiated by opening the surge valve at a rate as a function of a compressor dynamic operating point distance from a surge limit line and wherein the surge valve is opened in a step response or a ramp response.
A filtration device for the dead-end filtration of infusion liquids comprising i. a header section having an inlet for a liquid; ii. a disk having a plurality of bores , each bore holding a first end of a semipermeable hollow fiber membrane protruding from the disk , the semipermeable hollow fiber membrane being sealed at its second end such that any liquid entering a first end of the hollow fiber membrane can only leave the fiber through the membrane wall, being filtered in the process and iii. a tubular section having an outlet for a liquid; the header section covering a first face of the disk ; and the tubular section covering a second face of the disk opposite to the first face, and enclosing the plurality of semipermeable hollow fiber membranes ; a lip of the header section and a lip of the tubular section contacting the disk ; wherein the header section , the disk , and the tubular section each comprise a thermoplastic polymer and wherein the materials of the header section and the tubular section are substantially transparent to IR light; and the disk comprises from 0.1 to 10 wt.-%, relative to the total weight of the thermoplastic polymer, of an IR-absorptive pigment selected from the group consisting of carbon black, IR-absorptive inorganic pigments selected from copper phosphates and indium tin oxide (ITO), and IR-absorptive organic pigments selected from phthalocyanines, naphthalolcyanines, metal complexes of azo dyes, anthraquinones, squaric acid derivatives, immonium dyes, perylenes, quaterylenes and polymethins; and both the header section and the tubular section are welded to the disk by irradiation with laser light having a wavelength in the range of from 800 nm to 1090 nm. i. a header section having an inlet for a liquid; ii. a disk having a plurality of bores , each bore holding a first end of a semipermeable hollow fiber membrane protruding from the disk , the semipermeable hollow fiber membrane being sealed at its second end such that any liquid entering a first end of the hollow fiber membrane can only leave the fiber through the membrane wall, being filtered in the process and iii. a tubular section having an outlet for a liquid;
A blade bit to be attached to a chuck in an envelope surface of a crusher rotor , the blade bit having four corners and arranged to be attached to the chuck such that an angular-shaped tip of the blade bit points outwardly from the envelope surface substantially in the radial direction of the rotor, whereby the rear surface of the blade bit , which acts as its attachment surface to the chuck , comprises a support surface that prevents the blade bit from rotating and that enables sliding of the blade bit towards the envelope surface when the blade bit is being attached, until the blade bit is supported to the envelope surface, wherein the support surface comprises at least one groove passing substantially in the diagonal direction through the opposing corners of the blade bit , characterized in that in the whole consisting of the blade bit and its chuck there is also arranged a structure preventing the blade bit from wobbling, which structure consists of continuous, raised edge zones of either one or both of the surfaces to be placed against one another.
A holding device for automated stopcock actuation, comprising: a base body ; characterized in that the holding device further comprises a driver rotatably received at the base body , wherein the holding device has a receptacle for removably receiving at least a part of a stopcock (A) and configured such that the driver can engage with and actuate a handle (B) of the stopcock (A) received in the receptacle upon rotation of the driver , and a first fixation member that is configured to allow selective fixation of the stopcock (A) in the receptacle , wherein the first fixation member is configured to allow placement of the stopcock (A) into the receptacle in a defined rotation position of the driver and prevent removal of the stopcock (A) from the receptacle upon a relative rotation, between the driver and the base body , and wherein the first fixation member comprises a lip , so as to partially overlap the receptacle , and a notch in the lip arranged so as to prevent removal of the stopcock (A) placed in the receptacle over a defined rotation range of the driver and allow removal/placement of the stopcock (A) at a defined rotation position where the notch is aligned with the receptacle . a base body ; characterized in that the holding device further comprises a driver rotatably received at the base body , wherein the holding device has a receptacle for removably receiving at least a part of a stopcock (A) and configured such that the driver can engage with and actuate a handle (B) of the stopcock (A) received in the receptacle upon rotation of the driver , and a first fixation member that is configured to allow selective fixation of the stopcock (A) in the receptacle , wherein the first fixation member is configured to allow placement of the stopcock (A) into the receptacle in a defined rotation position of the driver and prevent removal of the stopcock (A) from the receptacle upon a relative rotation, between the driver and the base body , and wherein the first fixation member comprises a lip , so as to partially overlap the receptacle , and a notch in the lip arranged so as to prevent removal of the stopcock (A) placed in the receptacle over a defined rotation range of the driver and allow removal/placement of the stopcock (A) at a defined rotation position where the notch is aligned with the receptacle .