mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method of a zeolite structure , comprising: a mixing step of mixing a plurality of zeolite particles , an inorganic binding material which binds the zeolite particles to one another, and an organic binder, to prepare a zeolite raw material; a forming step of extruding the prepared zeolite raw material to obtain a formed zeolite article; and a firing step of firing the obtained formed zeolite article to prepare the zeolite structure , characterized in that the mixing step uses the inorganic binding material containing at least one type of silica sol selected from the group consisting of silica sol containing silica particles coated with alumina and cationic silica sol, and a content ratio of silica particles contained in the silica sol selected from the group is from 10 to 30 mass% with respect to 100 mass% of the zeolite particles . a mixing step of mixing a plurality of zeolite particles , an inorganic binding material which binds the zeolite particles to one another, and an organic binder, to prepare a zeolite raw material; a forming step of extruding the prepared zeolite raw material to obtain a formed zeolite article; and a firing step of firing the obtained formed zeolite article to prepare the zeolite structure ,
Thread tensioning device for a sewing machine - with a tensioning shaft configured such as to allow a sewing thread to be tensioned to be wound around said tensioning shaft , - with at least one tensioning unit interacting with the tensioning shaft to generate a thread tension in the path of the sewing thread downstream of the tensioning shaft , - with a thread path deflecting element to deflect a thread path of the sewing thread , - wherein a thread path of the thread tensioning device is such that the sewing thread -- is first wound around the tensioning shaft to generate a first thread tension contribution, -- then runs over the thread path deflecting element and -- is then wound around the tensioning shaft again to generate a second thread tension contribution. - with a tensioning shaft configured such as to allow a sewing thread to be tensioned to be wound around said tensioning shaft , - with at least one tensioning unit interacting with the tensioning shaft to generate a thread tension in the path of the sewing thread downstream of the tensioning shaft , - with a thread path deflecting element to deflect a thread path of the sewing thread , - wherein a thread path of the thread tensioning device is such that the sewing thread -- is first wound around the tensioning shaft to generate a first thread tension contribution, -- then runs over the thread path deflecting element and -- is then wound around the tensioning shaft again to generate a second thread tension contribution. -- is first wound around the tensioning shaft to generate a first thread tension contribution, -- then runs over the thread path deflecting element and -- is then wound around the tensioning shaft again to generate a second thread tension contribution.
An automated laboratory apparatus for processing a sample comprising a treatment chamber for receiving the sample ; a movement device arranged movably in at least one first spatial direction (x) of the treatment chamber ; an analysis unit arranged in the treatment chamber for analyzing the sample , which analysis unit can be received by the movement device and can be moved to the sample by means of the movement device ; and an electronic control device which is signal-connected to the movement device and the analysis unit , wherein the analysis unit is designed as a detection device comprising a radiation source for irradiating the sample with a primary radiation and a detector for receiving a secondary radiation originating from the sample , characterized in that the analysis unit is designed as a wireless analysis unit with an energy storage device, and the automated laboratory apparatus comprises a charging station arranged in the treatment chamber for storing the analysis unit and for charging the energy storage device. a treatment chamber for receiving the sample ; a movement device arranged movably in at least one first spatial direction (x) of the treatment chamber ; an analysis unit arranged in the treatment chamber for analyzing the sample , which analysis unit can be received by the movement device and can be moved to the sample by means of the movement device ; and an electronic control device which is signal-connected to the movement device and the analysis unit , wherein the analysis unit is designed as a detection device comprising a radiation source for irradiating the sample with a primary radiation and a detector for receiving a secondary radiation originating from the sample , characterized in that the analysis unit is designed as a wireless analysis unit with an energy storage device, and the automated laboratory apparatus comprises a charging station arranged in the treatment chamber for storing the analysis unit and for charging the energy storage device.
A high entropy alloy article comprising Co, Cr, Fe, Ni, and Ti elements, each element in content of 5 atomic percent to 35 atomic percent, more than 0 atomic percent to 8 atomic percent of Mo, and remainder substances of unavoidable impurities, wherein an intermetallic compound phase of acicular crystals is dispersedly precipitated in the matrix phase crystals of the high entropy alloy article.
A method for relative uplink channel estimation, the method being performed by a terminal device , the method comprising: transmitting (S102) reference signals from at least two antennas (T1, T2) on respective uplink channels towards a network node , wherein the reference signals are transmitted using one transmit branch (Tx1, Tx2) per antenna (T1, T2) of the at least two antennas (T1, T2) such that the reference signals are transmitted using as many transmit branches (Tx1, Tx2) as there are antennas (T1, T2); receiving (S104) a forwarded representation of each of the reference signals from the network node , wherein the forwarded representations of the reference signals are received on at least one receive branch (Rx1, Rx2); and estimating (S106) a relation between the uplink channels towards the network node for the at least two antennas (T1, T2) using the reference signals and the received forwarded representations of the reference signals, thereby estimating the relative uplink channel, towards the network node , between the at least two antennas (T1, T2), wherein the relation between the uplink channels for a given one of the at least one receive branch (Rx1, Rx2) is determined as a ratio between the forwarded representations of the reference signals as received on this given receive branch (Rx1, Rx2). transmitting (S102) reference signals from at least two antennas (T1, T2) on respective uplink channels towards a network node , wherein the reference signals are transmitted using one transmit branch (Tx1, Tx2) per antenna (T1, T2) of the at least two antennas (T1, T2) such that the reference signals are transmitted using as many transmit branches (Tx1, Tx2) as there are antennas (T1, T2); receiving (S104) a forwarded representation of each of the reference signals from the network node , wherein the forwarded representations of the reference signals are received on at least one receive branch (Rx1, Rx2); and estimating (S106) a relation between the uplink channels towards the network node for the at least two antennas (T1, T2) using the reference signals and the received forwarded representations of the reference signals, thereby estimating the relative uplink channel, towards the network node , between the at least two antennas (T1, T2), wherein the relation between the uplink channels for a given one of the at least one receive branch (Rx1, Rx2) is determined as a ratio between the forwarded representations of the reference signals as received on this given receive branch (Rx1, Rx2).
Non-pneumatic wheel comprising an annular reinforcing structure produced from at least one elastomer compound, arranged radially on the inside of a tread , the said annular reinforcing structure comprising a plurality of reinforcing strips arranged in layers, the said reinforcing strips of each of the layers being arranged in juxtaposition in a substantially circumferential direction, the said reinforcing strips being coated with an elastomer composition , the annular reinforcing structure comprising at least three layers of reinforcing strips , characterized in that each reinforcing strips is formed of a laminate of at least two composite layers, each composite layer of said laminate comprising fibres (15, 15', 15") coated in a polymer matrix, the said fibres (15, 15', 15") being mutually-parallel oriented and making an angle α with the circumferential direction, the value of the said angles α being a non-zero value at least for one of the angles α, and in that the limit values of said angles α are - 90° and +90°.
Modular gripping finger for arrangement on a movable gripper jaw of a gripping device , having at least two rigidly interconnected finger modules , the finger modules comprising one or more base modules for forming a geometric shape of the gripping finger and comprising an end module having a gripping surface , the end module comprising an electrical end module interface and at least one sensor which is or can be connected to the end module interface , each base module comprising a front electrical interface nearer the gripper jaw and a rear electrical interface further away from the gripper jaw , the at least one base module being connectable via its rear electrical interface to the electrical end module interface , one or more connecting lines for transmitting energy and data being provided within each base module between the front electrical interface and the rear electrical interface in each case, the connecting lines interconnected via the electrical interfaces forming a through line such that energy for operating the sensor and/or sensor data generated by the sensor can be transmitted between the electrical jaw interface and the electrical end module interface , and characterized in that the front electrical interface and the electrical end module interface are identical in each case.
Method for assisting the take-off of a rotorcraft , said rotorcraft comprising: - a fuselage , - at least one rotor provided with a plurality of blades , including at least one lift rotor , - control devices for controlling the pitches of said blades of said at least one rotor , and - a landing gear provided with at least three ground contact members , each being connected to said fuselage by a connecting member (45, 46, 47; 56, 57, 58, 59), characterised in that said method comprises the following steps: - measuring at least one piece of information relating to the forces to which each ground contact member is subjected during a landing phase, - measuring at least one piece of information relating to said pitches of said blades of said at least one rotor during said landing phase of said rotorcraft , and - automatically controlling said pitches of said blades of said at least one rotor during said take-off phase of said rotorcraft following said landing as a function of said measurements taken during said landing. - a fuselage , - at least one rotor provided with a plurality of blades , including at least one lift rotor , - control devices for controlling the pitches of said blades of said at least one rotor , and - a landing gear provided with at least three ground contact members , each being connected to said fuselage by a connecting member (45, 46, 47; 56, 57, 58, 59), - measuring at least one piece of information relating to the forces to which each ground contact member is subjected during a landing phase, - measuring at least one piece of information relating to said pitches of said blades of said at least one rotor during said landing phase of said rotorcraft , and - automatically controlling said pitches of said blades of said at least one rotor during said take-off phase of said rotorcraft following said landing as a function of said measurements taken during said landing.
A method for receiving information from a base station, BS, by a user equipment, UE, in a long term evolution, LTE, advanced wireless communication system, the method comprising: receiving, from the BS, first information on a transmission method of an enhanced physical downlink control channel, EPDCCH; and blind decoding the EPDCCH, except in a frequency region in a preset subframe, based on the first information, wherein the EPDCCH is received by the UE from the BS through at least one serving cell configured to the UE, wherein a first number of preceding orthogonal frequency division multiplexing, OFDM, symbols included in a subframe is used for a physical downlink control channel, PDCCH, region, wherein the first number is indicated through a physical control format indicator channel, PCFICH, wherein remaining OFDM symbols, except the first number of preceding OFDM symbols, included in the subframe are available to be used for the EPDCCH, wherein based on that information only indicating a starting OFDM symbol for EPDCCH is received through a radio resource control, RRC, signal, one or more OFDM symbols are present between the PDCCH region and the EPDCCH region and the EPDCCH is started from the indicated starting OFDM symbol, and wherein based on that the information only indicating the starting OFDM symbol is not received through the RRC signal, the PDCCH region and the EPDCCH region are consecutive in a time domain. receiving, from the BS, first information on a transmission method of an enhanced physical downlink control channel, EPDCCH; and blind decoding the EPDCCH, except in a frequency region in a preset subframe, based on the first information, wherein the EPDCCH is received by the UE from the BS through at least one serving cell configured to the UE, wherein a first number of preceding orthogonal frequency division multiplexing, OFDM, symbols included in a subframe is used for a physical downlink control channel, PDCCH, region, wherein the first number is indicated through a physical control format indicator channel, PCFICH, wherein remaining OFDM symbols, except the first number of preceding OFDM symbols, included in the subframe are available to be used for the EPDCCH, wherein based on that information only indicating a starting OFDM symbol for EPDCCH is received through a radio resource control, RRC, signal, one or more OFDM symbols are present between the PDCCH region and the EPDCCH region and the EPDCCH is started from the indicated starting OFDM symbol, and wherein based on that the information only indicating the starting OFDM symbol is not received through the RRC signal, the PDCCH region and the EPDCCH region are consecutive in a time domain.
Method to move containers (C) in a processing line that comprises a station for storing and picking up said containers (C) and a station at least for filling said containers (C), said method providing, in said storage and pick-up station , to: - supply a container-holding tray containing a plurality of said containers (C) disposed resting in an orderly manner, according to a pattern defined by a positioning matrix (M1), on said container-holding tray with their mouth facing toward a bottom wall of said container-holding tray , - upend said containers (C) disposed in said container-holding tray by means of upending means comprising an upending tray configured to couple with said container-holding tray so as to engage, according to said pattern defined by said positioning matrix (M1), at least one part of said containers (C), said upended containers (C) being supported at the bottom by said upending tray , said method being characterized in that it also provides to move, with respect to said upending tray , extraction means to pick up, from said upending tray , at least two containers (C) disposed in two parallel and consecutive rows (I, II) of said positioning matrix (M1), of which a first container (C1) of said at least two containers (C) is positioned in a first row (I) and a second container (C2) of said at least two containers (C) is positioned in a second row (II), wherein said extraction means are moved in a pick-up direction (W) on a substantially horizontal plane, so that the extraction means first encounter the first container (C1) to be picked up and then the second container (C2) to be picked up, which is therefore further downstream, when said extraction means move toward the container-holding tray in the pick-up direction (W), and subsequently to move said at least two containers (C) picked up with said extraction means toward said at least filling station . - supply a container-holding tray containing a plurality of said containers (C) disposed resting in an orderly manner, according to a pattern defined by a positioning matrix (M1), on said container-holding tray with their mouth facing toward a bottom wall of said container-holding tray , - upend said containers (C) disposed in said container-holding tray by means of upending means comprising an upending tray configured to couple with said container-holding tray so as to engage, according to said pattern defined by said positioning matrix (M1), at least one part of said containers (C), said upended containers (C) being supported at the bottom by said upending tray ,
A method comprising: transmitting traffic over an Ethernet link coupling a first Ethernet link partner to a second Ethernet link partner ; updating, in response to a network interface re-configuration event , a configuration of a Media Access Channel Layer, MAC, circuitry of the first Ethernet link partner ; pausing transmitting traffic over the Ethernet link while keeping a Physical Layer, PHY, circuitry of the first Ethernet link partner active; updating the configuration of the MAC circuitry of the first Ethernet link partner while traffic transmitted over the Ethernet link is paused and the PHY circuitry of the first Ethernet link partner is active, wherein updating the configuration of the MAC circuitry while traffic transmitted over the Ethernet link is paused includes resetting at least a portion of the MAC circuitry, wherein power to the MAC and PHY is implemented such that power for the MAC circuitry and for the PHY circuitry can be controlled independently, and wherein resetting, at least, a portion of the MAC circuitry comprises cycling power to the MAC circuitry while maintaining power to the PHY circuitry; and resuming transmitting traffic over the Ethernet link. transmitting traffic over an Ethernet link coupling a first Ethernet link partner to a second Ethernet link partner ; updating, in response to a network interface re-configuration event , a configuration of a Media Access Channel Layer, MAC, circuitry of the first Ethernet link partner ; pausing transmitting traffic over the Ethernet link while keeping a Physical Layer, PHY, circuitry of the first Ethernet link partner active; updating the configuration of the MAC circuitry of the first Ethernet link partner while traffic transmitted over the Ethernet link is paused and the PHY circuitry of the first Ethernet link partner is active, wherein updating the configuration of the MAC circuitry while traffic transmitted over the Ethernet link is paused includes resetting at least a portion of the MAC circuitry, wherein power to the MAC and PHY is implemented such that power for the MAC circuitry and for the PHY circuitry can be controlled independently, and wherein resetting, at least, a portion of the MAC circuitry comprises cycling power to the MAC circuitry while maintaining power to the PHY circuitry; and wherein power to the MAC and PHY is implemented such that power for the MAC circuitry and for the PHY circuitry can be controlled independently, and wherein resetting, at least, a portion of the MAC circuitry comprises cycling power to the MAC circuitry while maintaining power to the PHY circuitry; and resuming transmitting traffic over the Ethernet link.
An apparatus for feeding a plurality of threads to rotating godets (10.1 - 10.4) of a melt spinning machine with a manual injector and a cutting device , characterized in that the manual injector is assigned a transfer device and a second manual injector .
A composition comprising: i) a flavonoid or polyphenol; and ii) a heat stable solubilizing compound; wherein said composition is formed by a process comprising heating said flavonoid or polyphenol in the presence of said heat stable solubilizing compound to a temperature of greater than 100°C in the absence of a carrier, such that said flavonoid or polyphenol is dissolved in said heat stable solubilizing compound. i) a flavonoid or polyphenol; and ii) a heat stable solubilizing compound;
A stirrer shaft for a microwave oven, the stirrer shaft comprising: a shaft body configured to connect between a stirrer motor on a first end of the shaft body and a set of stirrer blades spaced apart from the stirrer motor, characterised by the shaft body including a flow passage therethrough for equalizing pressure in a sealed stirrer cavity of the microwave oven.
A head-up display device (A), comprising: a projected member; a display means for emitting display light (L); a reflecting mirror for reflecting the display light (L); a drive means for changing an angle of reflection of the display light (L) by rotating the reflecting mirror ; and a control means that controls the drive means to rotate the reflecting mirror from a first position to a plurality of second positions and controls the display means to emit the display light (L), wherein: in the first position , the display means does not emit the display light (L), and in the second positions , the display means emits the display light, and the reflecting mirror reflects the display light (L) to the projected member to cause a vehicle passenger to visually recognize a virtual image (V) via the projected member, characterized in that , in the second positions , the control means causes the display means to display a scale indicating the movable range of the reflecting mirror and a current position on the scale according to the current position of the reflecting mirror . a projected member; a display means for emitting display light (L); a reflecting mirror for reflecting the display light (L); a drive means for changing an angle of reflection of the display light (L) by rotating the reflecting mirror ; and a control means that controls the drive means to rotate the reflecting mirror from a first position to a plurality of second positions and controls the display means to emit the display light (L), wherein: in the first position , the display means does not emit the display light (L), and in the second positions , the display means emits the display light, and the reflecting mirror reflects the display light (L) to the projected member to cause a vehicle passenger to visually recognize a virtual image (V) via the projected member, in the first position , the display means does not emit the display light (L), and in the second positions , the display means emits the display light, and the reflecting mirror reflects the display light (L) to the projected member to cause a vehicle passenger to visually recognize a virtual image (V) via the projected member, characterized in that , in the second positions , the control means causes the display means to display a scale indicating the movable range of the reflecting mirror and a current position on the scale according to the current position of the reflecting mirror .