mhurhangee/patent-ind-claim-en huggingface dataset:
A porous composite material comprising: a MAX phase solid having a formula M n+1 AX n , where n=1-3, M is an early transition metal selected from the group consisting of Sc, Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, and combinations thereof, A is an A-group element selected from the group consisting of Cd, Al, Gd, In, Tl, Si, Ge, Sn, Pb, P, As, S, and combinations thereof, and X includes at least one of carbon and nitrogen; and a high temperature melting point metallic material interdispersed with the MAX phase solid, wherein the high temperature melting point metallic material is a metal or an alloy having a base metal selected from the group consisting of Y, Sc, Be, and combinations thereof. a MAX phase solid having a formula M n+1 AX n , where n=1-3, M is an early transition metal selected from the group consisting of Sc, Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, and combinations thereof, A is an A-group element selected from the group consisting of Cd, Al, Gd, In, Tl, Si, Ge, Sn, Pb, P, As, S, and combinations thereof, and X includes at least one of carbon and nitrogen; and a high temperature melting point metallic material interdispersed with the MAX phase solid, wherein the high temperature melting point metallic material is a metal or an alloy having a base metal selected from the group consisting of Y, Sc, Be, and combinations thereof.
An opening roller housing for an opening unit of an open-end rotor spinning device with a feed opening for feeding a sliver into the opening roller housing , with a discharge opening for discharging fibres from the opening roller housing , as well as with a dirt separation opening in the circumferential wall of the opening roller housing , the opening roller housing having an exchangeable insert , with the insert being formed as a hollow, cylindrical ring , which has in the cylinder wall at least one wall region with an opening and a trough-shaped fibre inlet into the discharge opening and a wall region with an opening for adjusting the dirt separation opening , whereby the insert adjusts the annular gap between the opening roller housing of an opening roller by the thickness of its cylinder wall .
A system comprising an industrial vehicle and a layover bracket system for supporting the industrial vehicle in a horizontal position comprising: a bracket removably coupled to a proximal end portion of the industrial vehicle, the proximal end portion located proximate to the floor surface when the industrial vehicle is in a vertical position, characterised in that the bracket comprises: at least one wheel for moving the layover bracket system with the industrial vehicle supported thereon while the industrial vehicle is in a horizontal position; at least one retention member for militating against sliding movement of the layover bracket system and the vehicle on the floor surface when the vehicle is engaged with the bracket and is in an upright position; and an adjustment mechanism for moving the at least one wheel between a ground-engaging position and a retracted position, wherein: while the at least one wheel is in the ground engaging position, the at least one wheel contacts the floor surface while the vehicle is supported on the bracket and is in the horizontal position; and while the at least one wheel is in the retracted position, the at least one retention member contacts the floor surface while the vehicle is engaged with the bracket and is in the upright position, but the at least one wheel does not contact the floor surface while the vehicle is engaged with the bracket and is in the upright position. at least one wheel for moving the layover bracket system with the industrial vehicle supported thereon while the industrial vehicle is in a horizontal position; at least one retention member for militating against sliding movement of the layover bracket system and the vehicle on the floor surface when the vehicle is engaged with the bracket and is in an upright position; and an adjustment mechanism for moving the at least one wheel between a ground-engaging position and a retracted position, wherein: while the at least one wheel is in the ground engaging position, the at least one wheel contacts the floor surface while the vehicle is supported on the bracket and is in the horizontal position; and while the at least one wheel is in the retracted position, the at least one retention member contacts the floor surface while the vehicle is engaged with the bracket and is in the upright position, but the at least one wheel does not contact the floor surface while the vehicle is engaged with the bracket and is in the upright position. while the at least one wheel is in the ground engaging position, the at least one wheel contacts the floor surface while the vehicle is supported on the bracket and is in the horizontal position; and while the at least one wheel is in the retracted position, the at least one retention member contacts the floor surface while the vehicle is engaged with the bracket and is in the upright position, but the at least one wheel does not contact the floor surface while the vehicle is engaged with the bracket and is in the upright position.
Method for producing a plastic part in a two-component injection moulding process using a plastic injection molding tool which comprises a first and a second moulded part , wherein the moulded parts are movable relative to one another between a mould-open position and a mould-closed position, wherein, furthermore, an injection nozzle is formed in a moulded part , a first and a second plastic component (K1, K2) are able to be injected, and a clearance part is provided,wherein, in addition, in order to produce the plastic injection-moulded part , the first component (K1) is injected in a first injection-molding process to form a first partial area of the plastic injection-moulded part , and the second component (K2) is injected in a second injection-moulding process to form a second partial area of the plastic injection-moulded part ,wherein, furthermore, before the first injection process is carried out, the clearance part is situated in the mould-closed position in the first position, in which it delimits a free space and, thereafter,, in the injection-moulding process, the first partial area having the free space is produced and, with respect to the second injection-moulding process, in which the second partial area is produced using the free space, the clearance part is moved into a second position, wherein, furthermore, the second position is achieved by moving the clearance part towards the moulded part , in which position the injection nozzle is designed for injecting the second plastic component (K2) and a mould core , which can be moved between a first and a second core position, is provided, and the clearance part is advanced in the first position into an abutment with respect to its end face to the mould core , characterised in that the clearance part is designed as a rod part, preferably arranged centrally in the injection nozzle , or as a closure part of the injection nozzle , that the mould core also delimits a side surface of the plastic part , that the side surface is partially exposed in the second core position with regard to a cavity (H1) of the mould cavity released by the mould core , and that the mould core also seals the released cavity (H1) on a further area of the previously formed side surface , so that the plastic compound of the second component (K2) injected in this position of the injection nozzle cannot penetrate into the released cavity (H1).
Method for ordering packets belonging to various flows (i), a queue (Queue_i) being associated with each of said flows, this method including, when a packet (p) is received; - the determination of the flow (i) to which the packet (p) belongs; - a step (E40, E54) of determining the priority of said packet (p), a packet being considered to have priority when: • said packet is the first packet of a non-active flow, a flow being considered non-active when no packet of this flow has been received in a current cycle, or • said packet is one of the packets of an active flow (i), a flow being considered active after the reception of a first packet belonging to this flow and until the queue (Queue_i) associated with this flow is empty, as long as the number of bytes of this flow (i) received during the current cycle is less than a quota (Q_i) associated with the flow (i) for this current cycle; and - if said packet (p) is determined to be a non-priority packet, a step (E58) of queuing of this packet (p) in the queue (Queue_i); said method further comprising the transmission of packets during said cycle in the following order: - the queues are processed cyclically, the processing of a queue (Q_i) consisting in transmitting packets contained in this queue to the limit of said quota (Q_i), and - the priority packets are transmitted with priority over the packets contained in the queues. - the determination of the flow (i) to which the packet (p) belongs; - a step (E40, E54) of determining the priority of said packet (p), a packet being considered to have priority when: • said packet is the first packet of a non-active flow, a flow being considered non-active when no packet of this flow has been received in a current cycle, or • said packet is one of the packets of an active flow (i), a flow being considered active after the reception of a first packet belonging to this flow and until the queue (Queue_i) associated with this flow is empty, as long as the number of bytes of this flow (i) received during the current cycle is less than a quota (Q_i) associated with the flow (i) for this current cycle; and • said packet is the first packet of a non-active flow, a flow being considered non-active when no packet of this flow has been received in a current cycle, or • said packet is one of the packets of an active flow (i), a flow being considered active after the reception of a first packet belonging to this flow and until the queue (Queue_i) associated with this flow is empty, as long as the number of bytes of this flow (i) received during the current cycle is less than a quota (Q_i) associated with the flow (i) for this current cycle; and - if said packet (p) is determined to be a non-priority packet, a step (E58) of queuing of this packet (p) in the queue (Queue_i); - the queues are processed cyclically, the processing of a queue (Q_i) consisting in transmitting packets contained in this queue to the limit of said quota (Q_i), and - the priority packets are transmitted with priority over the packets contained in the queues.
An interchangeable cylinder system for furniture locks, comprising - a cylinder housing , - a lock cylinder which can be inserted into and withdrawn from the cylinder housing from a face side thereof and which can be twisted between an opening position and a closing position in the cylinder housing about a longitudinal axis (L) of the lock cylinder and the cylinder housing ; - a rod-like unlocking element , - with the lock cylinder comprising a collar which protrudes radially to the longitudinal axis (L) of the lock cylinder beyond the jacket surface of the lock cylinder and comprises an opening into which the rod-like unlocking element can be inserted, - with the jacket surface of the lock cylinder comprising an annular groove into which a locking element being configured as a platelet engages for securing the lock cylinder in the cylinder housing , - with an axial stop being integrally attached in the interior of the cylinder housing , through which a base region of the locking cylinder extends which is remote from the collar , - wherein the locking element rests in a recess which is provided on a side of the axial stop which faces away from the collar , - with the locking element being held in a spring-loaded manner in a locked position which engages into the annular groove and being displaceable by the unlocking element against the spring load out of the annular groove into a release position in which the lock cylinder can be removed from the cylinder housing , characterized in that - the locking element is arranged as a platelet which encloses the jacket of the lock cylinder . - a cylinder housing , - a lock cylinder which can be inserted into and withdrawn from the cylinder housing from a face side thereof and which can be twisted between an opening position and a closing position in the cylinder housing about a longitudinal axis (L) of the lock cylinder and the cylinder housing ; - a rod-like unlocking element , - with the lock cylinder comprising a collar which protrudes radially to the longitudinal axis (L) of the lock cylinder beyond the jacket surface of the lock cylinder and comprises an opening into which the rod-like unlocking element can be inserted, - with the jacket surface of the lock cylinder comprising an annular groove into which a locking element being configured as a platelet engages for securing the lock cylinder in the cylinder housing , - with an axial stop being integrally attached in the interior of the cylinder housing , through which a base region of the locking cylinder extends which is remote from the collar , - wherein the locking element rests in a recess which is provided on a side of the axial stop which faces away from the collar , - with the locking element being held in a spring-loaded manner in a locked position which engages into the annular groove and being displaceable by the unlocking element against the spring load out of the annular groove into a release position in which the lock cylinder can be removed from the cylinder housing , - the locking element is arranged as a platelet which encloses the jacket of the lock cylinder .
A process of making a feedstock for animals comprising the following steps: a. providing olive fruit, b. drying the olive fruit to reduce the moisture content prior to caramelising the olive fruit, wherein said drying is carried out independently of caramelising the olive fruit, c. caramelising the olive fruit, wherein the olive fruit is caramelised by caramelisation at a temperature of from 110° C to 180° C, wherein the olive fruit is caramelised while being agitated, and wherein the olive fruit is caramelised until the caramelised olive fruit has a moisture content of from 6 wt% to 15 wt%. a. providing olive fruit, b. drying the olive fruit to reduce the moisture content prior to caramelising the olive fruit, wherein said drying is carried out independently of caramelising the olive fruit, c. caramelising the olive fruit, wherein the olive fruit is caramelised by caramelisation at a temperature of from 110° C to 180° C, wherein the olive fruit is caramelised while being agitated, and wherein the olive fruit is caramelised until the caramelised olive fruit has a moisture content of from 6 wt% to 15 wt%.
A drive system for a marine vessel comprising a first housing fixed to an opening in a hull of the marine vessel , and a drive unit arranged inside the first housing , where the drive unit is provided with a second housing comprising a drive motor and a marine propulsion system attached to the second housing , where the marine propulsion system comprises a leg and a hub provided with at least one propeller , where the drive system comprises an adjustment mechanism arranged to adjust the position of the drive unit in the first housing , where the drive system is provided with a parking position in which the marine propulsion system is positioned inside the first housing and a drive position in which the marine propulsion system is positioned outside of the first housing , characterized in that the drive system is provided with a programmable automatic cleaning sequence in which the drive unit is moved from the parking position to the drive position and back to the parking position at least once when the marine vessel is parked with the drive unit in the parking position , where the cleaning sequence is adapted to mechanically clean the inside of the first housing from the movement of the drive unit from the parking position to the drive position back to the parking position.
A high-bypass ratio geared turbomachine, comprising: a compressor section , the compressor section providing at least a low-pressure compressor and a high-pressure compressor, wherein a rotor of the low-pressure compressor rotates together with a rotor of a fan at the same speed and in the same direction, characterised in that : the low-pressure compressor comprises a single rotor; and a low-pressure turbine shaft rotates a geared architecture to rotate the rotor of the low-pressure compressor and the rotor of the fan at a lower speed than the low-pressure turbine shaft . the low-pressure compressor comprises a single rotor; and a low-pressure turbine shaft rotates a geared architecture to rotate the rotor of the low-pressure compressor and the rotor of the fan at a lower speed than the low-pressure turbine shaft .
A respiratory ventilation system, comprising: a gas source interface , an inspiratory branch , a high-frequency oscillation generation device , and a ventilation control device ; the inspiratory branch is respectively connected with the gas source interface and a patient pipeline which is connected with a respiratory system of a patient; the high-frequency oscillation generation device is configured to generate high-frequency oscillation for a gas of the inspiratory branch ; characterized in that , the respiratory ventilation system further comprises an active expiratory device , wherein the active expiratory device comprises an electric gas extraction device ; the ventilation control device is connected with the inspiratory branch , the high-frequency oscillation generation device and the active expiratory device , wherein the ventilation control device is configured to control the high-frequency oscillation generation device to generate the high-frequency oscillation for the gas of the inspiratory branch according to a preset high-frequency oscillation frequency and to output a high-frequency oscillation gas which is generated by the high-frequency oscillation generation device through the inspiratory branch and the patient pipeline during an inspiratory phase, and is also configured to control the active expiratory device to actively extract, according to the preset high-frequency oscillation frequency, a gas which is exhaled by the patient through the patient pipeline during an expiratory phase. a gas source interface , an inspiratory branch , a high-frequency oscillation generation device , and a ventilation control device ; the inspiratory branch is respectively connected with the gas source interface and a patient pipeline which is connected with a respiratory system of a patient; the high-frequency oscillation generation device is configured to generate high-frequency oscillation for a gas of the inspiratory branch ; characterized in that , the respiratory ventilation system further comprises an active expiratory device , wherein the active expiratory device comprises an electric gas extraction device ; the ventilation control device is connected with the inspiratory branch , the high-frequency oscillation generation device and the active expiratory device , wherein the ventilation control device is configured to control the high-frequency oscillation generation device to generate the high-frequency oscillation for the gas of the inspiratory branch according to a preset high-frequency oscillation frequency and to output a high-frequency oscillation gas which is generated by the high-frequency oscillation generation device through the inspiratory branch and the patient pipeline during an inspiratory phase, and is also configured to control the active expiratory device to actively extract, according to the preset high-frequency oscillation frequency, a gas which is exhaled by the patient through the patient pipeline during an expiratory phase.
A topical composition comprising a saccharide isomerate, a polysiloxane-based UV filter and microfine zinc oxide, wherein the polysiloxane-based UV filter is a compound according to formula Ia wherein X signifies methyl, A signifies the group of the formula Ila or Ilb, R signifies methyl, R 1 and R 2 signify hydrogen, methoxy or ethoxy or one or R 1 and R 2 is hydrogen and the other is methyl, methoxy or ethoxy, R 3 signifies methyl or ethyl, R 4 signifies hydrogen or methyl, R 5 and R 6 signify hydrogen, r is about 5 to 150, s is about 2 to about 10, and n has a value of 1. X signifies methyl, A signifies the group of the formula Ila or Ilb, R signifies methyl, R 1 and R 2 signify hydrogen, methoxy or ethoxy or one or R 1 and R 2 is hydrogen and the other is methyl, methoxy or ethoxy, R 3 signifies methyl or ethyl, R 4 signifies hydrogen or methyl, R 5 and R 6 signify hydrogen, r is about 5 to 150, s is about 2 to about 10, and n has a value of 1.
An orthopedic device , comprising: a frame ; a brace component ; and a suspension element supporting the brace component and connecting the brace component to the frame , the suspension element being suspended relative to the frame and capable of movement relative thereto in a controlled manner; wherein the suspension element has anisotropic properties arranged to provide movement of the suspension element in a controlled manner relative to the frame ; characterized in that the anisotropic properties include the suspension element being inelastic in a first direction being vertical or horizontal, and elastic in a second direction being vertical or horizontal yet different from said first direction. a frame ; a brace component ; and a suspension element supporting the brace component and connecting the brace component to the frame , the suspension element being suspended relative to the frame and capable of movement relative thereto in a controlled manner; wherein the suspension element has anisotropic properties arranged to provide movement of the suspension element in a controlled manner relative to the frame ; characterized in that the anisotropic properties include the suspension element being inelastic in a first direction being vertical or horizontal, and elastic in a second direction being vertical or horizontal yet different from said first direction.