mhurhangee/patent-ind-claim-en huggingface dataset:
An immersion grinding apparatus, comprising: - an upper support structure , movable vertically between a lowered working position and a raised inoperative position, - a basket mill connected to the upper support structure by vertical supports and comprising: a top cap connected to the upper support structure by means of said vertical supports , a basket attached to the top cap and extending downward from the top cap , a mass of balls contained in the basket , a rotor located inside the basket and connected to the lower end of a vertical drive shaft which extends through an opening of the top cap , - at least one rotating stirrer located outside the basket , - a first electric motor which rotates the rotor of the basket mill , - a second electric motor which rotates said at least one stirrer , - a temperature sensor arranged to detect the temperature of the product during grinding, characterized in that it comprises - a control unit which controls the first and second electric motor as a function of signals provided by said temperature sensor and interrupts the operation of the apparatus when the temperature detected by said sensor temperature exceeds a maximum process temperature (T max ), the control unit is configured to set the rotation speeds of the rotor and of said at least one stirrer to different values (n R ', n A ', n R ", n A ", n R ′′′, n A ′′′) lower than nominal speed values (n R , n A ) when the temperatures detected by said temperature sensor exceed different temperature thresholds (Tc', Ts, Tc") lower than maximum process temperature (T max ). - an upper support structure , movable vertically between a lowered working position and a raised inoperative position, - a basket mill connected to the upper support structure by vertical supports and comprising: a top cap connected to the upper support structure by means of said vertical supports , a basket attached to the top cap and extending downward from the top cap , a mass of balls contained in the basket , a rotor located inside the basket and connected to the lower end of a vertical drive shaft which extends through an opening of the top cap , - at least one rotating stirrer located outside the basket , - a first electric motor which rotates the rotor of the basket mill , - a second electric motor which rotates said at least one stirrer , - a temperature sensor arranged to detect the temperature of the product during grinding, characterized in that it comprises - a control unit which controls the first and second electric motor as a function of signals provided by said temperature sensor and interrupts the operation of the apparatus when the temperature detected by said sensor temperature exceeds a maximum process temperature (T max ), the control unit is configured to set the rotation speeds of the rotor and of said at least one stirrer to different values (n R ', n A ', n R ", n A ", n R ′′′, n A ′′′) lower than nominal speed values (n R , n A ) when the temperatures detected by said temperature sensor exceed different temperature thresholds (Tc', Ts, Tc") lower than maximum process temperature (T max ).
A method for transmitting, by a user equipment, UE, a medium access control protocol data unit, MAC PDU, in a wireless communication system, the method comprising: receiving information on first semi persistent scheduling, SPS, configuration and information on second SPS configuration, from a base station; activating the first SPS configuration and the second SPS configuration; characterized in : measuring a first channel busy ratio, CBR, for a first carrier of the first SPS configuration; measuring a second CBR for a second carrier of the second SPS configuration; mapping a value of the first CBR to a first priority and a value of the second CBR to a second priority, wherein a lower value of a CBR is mapped to a higher priority; based on: i) a first resource of the first SPS configuration and a second resource of the second SPS configuration that are overlapped; and ii) the first priority that is higher than the second priority, selecting the first SPS configuration; transmitting the MAC PDU based on the first resource of the first SPS configuration, wherein transmission is not performed based on the second resource of the second non-selected SPS configuration. receiving information on first semi persistent scheduling, SPS, configuration and information on second SPS configuration, from a base station; activating the first SPS configuration and the second SPS configuration; characterized in : measuring a first channel busy ratio, CBR, for a first carrier of the first SPS configuration; measuring a second CBR for a second carrier of the second SPS configuration; mapping a value of the first CBR to a first priority and a value of the second CBR to a second priority, wherein a lower value of a CBR is mapped to a higher priority; based on: i) a first resource of the first SPS configuration and a second resource of the second SPS configuration that are overlapped; and ii) the first priority that is higher than the second priority, selecting the first SPS configuration; transmitting the MAC PDU based on the first resource of the first SPS configuration, wherein transmission is not performed based on the second resource of the second non-selected SPS configuration.
An equalization time configuration method, comprising: obtaining a port number of a master chip and an identity of a slave chip , and determining, a type of a channel located between a port of the master chip and the slave chip , wherein the type of the channel located between the port of the master chip and the slave chip is determined based on the port number of the master chip and the identity of the slave chip and wherein the determined channel type is long reach LR or short reach SR; obtaining a physical layer PHY type supported by the master chip and a PHY type supported by the slave chip , and determining whether both the PHY type supported by the master chip and the PHY type supported by the slave chip comprise the determined channel type, wherein each of the PHY type supported by the master chip and the PHY type supported by the slave chip is one of the following three: LR and SR, LR, or SR; when both the PHY type supported by the master chip and the PHY type supported by the slave chip comprise the determined channel type, determining working PHY types of the master chip and the slave chip , wherein both the working PHY types of the master chip and the slave chip are the same as the determined channel type; and configuring an equalization time of the master chip in a third phase of equalization based on the working PHY type of the slave chip , and configuring an equalization time of the slave chip in a fourth phase of the equalization based on the working PHY type of the master chip . obtaining a port number of a master chip and an identity of a slave chip , and determining, a type of a channel located between a port of the master chip and the slave chip , wherein the type of the channel located between the port of the master chip and the slave chip is determined based on the port number of the master chip and the identity of the slave chip and wherein the determined channel type is long reach LR or short reach SR; obtaining a physical layer PHY type supported by the master chip and a PHY type supported by the slave chip , and determining whether both the PHY type supported by the master chip and the PHY type supported by the slave chip comprise the determined channel type, wherein each of the PHY type supported by the master chip and the PHY type supported by the slave chip is one of the following three: LR and SR, LR, or SR; when both the PHY type supported by the master chip and the PHY type supported by the slave chip comprise the determined channel type, determining working PHY types of the master chip and the slave chip , wherein both the working PHY types of the master chip and the slave chip are the same as the determined channel type; and configuring an equalization time of the master chip in a third phase of equalization based on the working PHY type of the slave chip , and configuring an equalization time of the slave chip in a fourth phase of the equalization based on the working PHY type of the master chip .
A non-therapeutic and non-surgical method for separating a suspension of cellular material comprising at least two differently-sized cell types selected from red blood cells, white blood cells and platelets using a spinning membrane separator , the steps comprising: a) selecting the cell type to be separated by passing through the membrane ; b) determining a concentration of each different cell type in the suspension; c) selecting an inlet flow rate for the suspension; d) selecting a rotational speed for the spinning membrane separator related to the concentration and size of the selected cell type in the suspension relative to each non-selected cell type; e) rotating the spinning membrane separator at the selected rotational speed; and f) flowing the suspension through the spinning membrane separator . a) selecting the cell type to be separated by passing through the membrane ; b) determining a concentration of each different cell type in the suspension; c) selecting an inlet flow rate for the suspension; d) selecting a rotational speed for the spinning membrane separator related to the concentration and size of the selected cell type in the suspension relative to each non-selected cell type; e) rotating the spinning membrane separator at the selected rotational speed; and f) flowing the suspension through the spinning membrane separator .
Method for generating depth images, wherein images of a scene are recorded using at least two cameras , wherein depth information is derived from content correspondences between the images, wherein the scene is illuminated with structured light during the recording of the images, wherein contrast gradients of the structured light are smoothed, characterized in that a local smoothing width in at least one subregion is greater than a characteristic length of diffraction effects and/or imaging errors of a projection of the structured light .
A chromium-free surface-treated tinplate, wherein a chromium-free passivation film is formed on a surface of a tin layer, wherein the chromium-free passivation film comprises 0.1-20 mg/m 2 of zinc, 0.1-20 mg/m 2 of zirconium and/or molybdenum and 0.5-100 mg/m 2 silicon, wherein the silicon in the chromium-free passivation film is from an organosiloxane or polysiloxane, and the organosiloxane or polysiloxane is obtained by hydrolysis of an epoxy silane coupling agent.
A method to produce an immune-active milk product comprising: a. obtaining a nonfat milk fraction from raw (unpasteurized) milk; b. obtaining a composition comprising milk fat globule membrane components (MFGM) from buttermilk; c. combining the composition comprising MFGM components with the nonfat milk fraction; and d. pasteurizing the product of step c) by application of UV-C light to prepare the immune-active milk product. a. obtaining a nonfat milk fraction from raw (unpasteurized) milk; b. obtaining a composition comprising milk fat globule membrane components (MFGM) from buttermilk; c. combining the composition comprising MFGM components with the nonfat milk fraction; and d. pasteurizing the product of step c) by application of UV-C light to prepare the immune-active milk product.
An agricultural plough comprising: a ground engaging tool (322; 422); an actuator mechanism (366; 466; 566) that is configured to provide a bias force to the ground engaging tool (322; 422) such that it is biased towards a working position; and a controller that is configured to automatically set the level of the bias force that is provided by the actuator mechanism (366; 466; 566) based on control-data , wherein the actuator mechanism (366; 466; 566) is a stone trip mechanism, characterized in that the control data comprises previous-trip-event-data, which is representative of one or more earlier instances when the ground engaging tool (322; 422) has left its working position. a ground engaging tool (322; 422); an actuator mechanism (366; 466; 566) that is configured to provide a bias force to the ground engaging tool (322; 422) such that it is biased towards a working position; and a controller that is configured to automatically set the level of the bias force that is provided by the actuator mechanism (366; 466; 566) based on control-data , wherein the actuator mechanism (366; 466; 566) is a stone trip mechanism, characterized in that the control data comprises previous-trip-event-data, which is representative of one or more earlier instances when the ground engaging tool (322; 422) has left its working position.
A method for transmitting an uplink measurement report message in a wireless dual connectivity communication network, the method being performed in a wireless device connected to the network over at least a first and a second wireless link, the method comprising: - receiving information for transmitting the uplink measurement report message from the network, indicating at least one of alternative transmission modes, the alternative transmission modes comprising: transmitting on the first wireless link; transmitting on the second wireless link; and transmitting on both the first and the second wireless links; - determining the transmission mode based on the received information and based on a type of measurement report; and - transmitting the uplink measurement report message according to the determined transmission mode. - receiving information for transmitting the uplink measurement report message from the network, indicating at least one of alternative transmission modes, the alternative transmission modes comprising: transmitting on the first wireless link; transmitting on the second wireless link; and transmitting on both the first and the second wireless links; - determining the transmission mode based on the received information and based on a type of measurement report; and - transmitting the uplink measurement report message according to the determined transmission mode.
An application device for applying at least one fluid product on a substrate , the application device comprising: - an application member , for shaping the or each fluid product for its application on the substrate , the application member having an outlet orifice through which the fluid product(s) come out of the application device , - for at least one fluid product, an adjusting member able to adjust a dosing flow of the fluid product through the outlet orifice as a function of a command input of said adjusting member , and - a command module for determining the command input and supplying it to the adjusting member , in which the application device also comprises a speed measuring device able to determine a measured speed of the outlet orifice relative to an inertial reference, the command module being configured to determine the command input as a function of said measured speed, characterized in that the speed measuring device comprises at least one accelerometer , at least one gyroscope and a magnetometer , and the command module is at a distance from the speed measuring device of less than 5 cm, the command module being at a distance from the adjusting device of less than 10 cm. - an application member , for shaping the or each fluid product for its application on the substrate , the application member having an outlet orifice through which the fluid product(s) come out of the application device , - for at least one fluid product, an adjusting member able to adjust a dosing flow of the fluid product through the outlet orifice as a function of a command input of said adjusting member , and - a command module for determining the command input and supplying it to the adjusting member , in which the application device also comprises a speed measuring device able to determine a measured speed of the outlet orifice relative to an inertial reference, the command module being configured to determine the command input as a function of said measured speed, characterized in that the speed measuring device comprises at least one accelerometer , at least one gyroscope and a magnetometer , and the command module is at a distance from the speed measuring device of less than 5 cm, the command module being at a distance from the adjusting device of less than 10 cm.
A pair of spectacles comprising first and second variable focal length lenses forming left and right lenses of the pair of spectacles, each lens comprising a distensible membrane bounding a fluid-filled cavity , the focal length varying with the degree of curvature of the membrane as it distends, and an actuation mechanism for simultaneous actuation of the first and second lenses; characterised in that : the actuation mechanism comprises an hydraulic master actuator , an hydraulic slave actuator associated with the first lens and an hydraulic slave actuator associated with the second lens, each slave actuator being configured to exert a mechanical force on its associated lens for varying the degree of distension of the membrane of its associated lens in response to operation of the master actuator, the slave actuators being hydraulically coupled to the master actuator for driving the slave actuators by transmission of an actuation force from the master actuator to the slave actuators; whereby the master actuator is operable to cause a variation of the degree of distension of the membranes of both the first and second lenses simultaneously.
An adjustable elliptical trainer, comprising: a body ; a sliding rail and a connecting piece , wherein, the sliding rail has one end rotatably connected to the body around an axis and an other end detachably connected to the body by the connecting piece along a longitudinal extension direction of the sliding rail; and a movement mechanism comprising a sliding part matched with the sliding rail, the sliding part being provided on the sliding rail and being slidable along the sliding rail; wherein the axis is perpendicular to the longitudinal extension direction of the sliding rail, a first connection point is provided at a joint between the connecting piece and the sliding rail, and a second connection point is provided at a joint between the connecting piece and the body, the connecting piece is configured to be movable relative to the sliding rail and/or the body to adjust a distance between the first connection point and the second connection point, so as to adjust an angle at which the sliding rail is inclined to the body; characterized in that , the connecting piece is a fixing plate , one end of the fixing plate is fixedly connected to the sliding rail, and a plurality of fixing holes are provided in the fixing plate, and distances between each of the fixing holes and the first connection point are different, an other end of the fixing plate is detachably connected to the body by respective fixing holes. a body ; a sliding rail and a connecting piece , wherein, the sliding rail has one end rotatably connected to the body around an axis and an other end detachably connected to the body by the connecting piece along a longitudinal extension direction of the sliding rail; and a movement mechanism comprising a sliding part matched with the sliding rail, the sliding part being provided on the sliding rail and being slidable along the sliding rail; wherein the axis is perpendicular to the longitudinal extension direction of the sliding rail, a first connection point is provided at a joint between the connecting piece and the sliding rail, and a second connection point is provided at a joint between the connecting piece and the body, the connecting piece is configured to be movable relative to the sliding rail and/or the body to adjust a distance between the first connection point and the second connection point, so as to adjust an angle at which the sliding rail is inclined to the body; characterized in that , the connecting piece is a fixing plate , one end of the fixing plate is fixedly connected to the sliding rail, and a plurality of fixing holes are provided in the fixing plate, and distances between each of the fixing holes and the first connection point are different, an other end of the fixing plate is detachably connected to the body by respective fixing holes.
An optical waveguide substrate (12; 12A; 12B) comprising a ridge portion formed on a surface of a ferroelectric layer comprising a ferroelectric material and protrusions provided on both sides of said ridge portion , wherein a three-dimensional optical waveguide is provided in said ridge portion , wherein inner grooves are formed between said ridge portion and said protrusions , respectively, wherein each of said inner grooves has a depth (D1) of 1.0 μ m or larger, characterised in that outer grooves are formed outside said protrusions , respectively, with respect to said ridge portion , wherein said outer grooves are deeper than said inner grooves , wherein a difference of a depth (D2) of each of said outer grooves and said depth (D1) of each of said inner grooves is 0.1 μm or larger, and wherein said inner grooves , said protrusions and said outer grooves function to prevent horizontal leakage of propagating light from said three-dimensional optical waveguide. wherein a three-dimensional optical waveguide is provided in said ridge portion , wherein inner grooves are formed between said ridge portion and said protrusions , respectively, wherein each of said inner grooves has a depth (D1) of 1.0 μ m or larger, characterised in that outer grooves are formed outside said protrusions , respectively, with respect to said ridge portion , wherein said outer grooves are deeper than said inner grooves , wherein a difference of a depth (D2) of each of said outer grooves and said depth (D1) of each of said inner grooves is 0.1 μm or larger, and wherein said inner grooves , said protrusions and said outer grooves function to prevent horizontal leakage of propagating light from said three-dimensional optical waveguide.
Evaporator film former comprising a heat exchange pipe , tube plates , an evaporator housing with a lid , and a liner and a cap , which are installed in the upper part of the heat exchange pipe located between the tube plates in the evaporator housing, characterized in that the liner is attached to the spindle of a bellows assembly installed on the evaporator lid with a possibility to be remotely controlled performed by a manipulator or by connecting the bellows assembly to an actuator using a rod and provided with a tip made of radiation-resistant material not wetted by the evaporated liquid; the tip being made of two conjugate cones: the upper back cone and the lower right cone , wherein the lower cone being provided with a cylindrical band with projections , which are designed to center the conical tip along the inner surface of the heat exchange tube , and the cap is movable mounted on the liner , and the lower end of the cap is provided with grooves along its entire perimeter. the tip being made of two conjugate cones: the upper back cone and the lower right cone , wherein the lower cone being provided with a cylindrical band with projections , which are designed to center the conical tip along the inner surface of the heat exchange tube , and the cap is movable mounted on the liner , and the lower end of the cap is provided with grooves along its entire perimeter.