mhurhangee/patent-ind-claim-en huggingface dataset:
Mechanism for moving a furniture door, apt to be placed on a lateral side of the piece of furniture and to move a door by means of a system of levers of the mechanism, said mechanism further comprising a spring unit acting on said system of levers in order to balance the weight force of the door during the phase of opening, wherein said spring unit is pivotally mounted on a plate of the mechanism apt to be placed on the lateral side of said piece of furniture, and acts directly on a main or thrust lever of said system of levers mounted rotating on said plate around an axis , by means of a pin housed in a first cam slot formed in the main lever characterised in that said pin is furthermore housed in a second cam slot formed in said plate , the second cam slot thus being placed in a fixed position with respect to the lateral side of the piece of furniture.
A system comprising: a flash tank configured to store a refrigerant; a load configured to use the refrigerant from the flash tank to remove heat from a space proximate the load ; a first compressor configured to compress the refrigerant from the load ; a refrigerant routing line configured to route the refrigerant from the first compressor to the flash tank below a liquid level line of the flash tank , wherein a portion of the refrigerant routing line within the flash tank is perforated; and a flash gas bypass line coupled to the flash tank , the flash gas bypass line configured to send the refrigerant as a flash gas from the flash tank to a second compressor , the second compressor configured to compress the refrigerant. a flash tank configured to store a refrigerant; a load configured to use the refrigerant from the flash tank to remove heat from a space proximate the load ; a first compressor configured to compress the refrigerant from the load ; a refrigerant routing line configured to route the refrigerant from the first compressor to the flash tank below a liquid level line of the flash tank , wherein a portion of the refrigerant routing line within the flash tank is perforated; and a flash gas bypass line coupled to the flash tank , the flash gas bypass line configured to send the refrigerant as a flash gas from the flash tank to a second compressor , the second compressor configured to compress the refrigerant.
A method for controlling a smart device that is bound to a user account comprising: Acquiring (201;301) a video stream captured by a smart camera that is bound to the user account, wherein the video stream includes multi-frame video that includes a plurality of one-frame video images; Performing pattern recognition on each of the plurality of one-frame video images, wherein the pattern recognition is configured to determine an area that includes at least one smart device in at least one of the plurality of one-frame video images; determining, based on the pattern recognition, a target area that includes the smart device in a first one-frame video image of the plurality of one-frame video images; characterised in that the method is further comprising: displaying the first one-frame video image including the target area on a touch screen; detecting, via the touch screen, a control operation within the target area of the first one-frame video image; and controlling the smart device located in the target area based on the control operation. Acquiring (201;301) a video stream captured by a smart camera that is bound to the user account, wherein the video stream includes multi-frame video that includes a plurality of one-frame video images; Performing pattern recognition on each of the plurality of one-frame video images, wherein the pattern recognition is configured to determine an area that includes at least one smart device in at least one of the plurality of one-frame video images; determining, based on the pattern recognition, a target area that includes the smart device in a first one-frame video image of the plurality of one-frame video images; characterised in that the method is further comprising: displaying the first one-frame video image including the target area on a touch screen; detecting, via the touch screen, a control operation within the target area of the first one-frame video image; and controlling the smart device located in the target area based on the control operation. displaying the first one-frame video image including the target area on a touch screen; detecting, via the touch screen, a control operation within the target area of the first one-frame video image; and controlling the smart device located in the target area based on the control operation.
Method for controlling a charging current limit value for a battery management system, characterized by the following steps: - determining reference currents i ref for a measured temperature T sens and a given state of charge SOC for different periods t ref ; - calculating a corresponding reference time constant τ ref for each reference current i ref on the basis of a model for calculating an average value i avrg of a charging current i req using a continuous current i cont that corresponds to the minimum current permissible without lithium plating; - forming a diagram of the relationship between the reference time constant i ref and the reference current i ref on the basis of the calculated reference time constants τ ref and the determined reference currents i ref for each particular temperature T and each particular state of charge SOC; - ascertaining a predictive time constant τ pred by comparing a measured value i sens of a charging current i req with the reference currents i ref ; - calculating a predictive limit average value i pred of the charging current i req based on the continuous current i cont , a predictive period t pred and the predictive time constant τ pred . - determining reference currents i ref for a measured temperature T sens and a given state of charge SOC for different periods t ref ; - calculating a corresponding reference time constant τ ref for each reference current i ref on the basis of a model for calculating an average value i avrg of a charging current i req using a continuous current i cont that corresponds to the minimum current permissible without lithium plating; - forming a diagram of the relationship between the reference time constant i ref and the reference current i ref on the basis of the calculated reference time constants τ ref and the determined reference currents i ref for each particular temperature T and each particular state of charge SOC; - ascertaining a predictive time constant τ pred by comparing a measured value i sens of a charging current i req with the reference currents i ref ; - calculating a predictive limit average value i pred of the charging current i req based on the continuous current i cont , a predictive period t pred and the predictive time constant τ pred .
Detection device (8; 10, 110) for a laying system for producing a wiring loom , wherein the detection device has: a unit with a capacitive coupler for coupling detection frequency signals (S1) into the body of the user , a control and evaluation device for outputting display signals (S3) to a display device , wherein the control and evaluation device is configured for data communication with the unit via plug holders and the cable connected to the plug holders, wherein the control and evaluation device is designed to detect the connected cable and/or single lines of the cable , and wherein the control and evaluation device is designed so that when a detection frequency signal (S1) of the unit is picked up via a plug holder it outputs subsequent display signals (S3) to the display device to display a laying path for the connected cable and/or single lines of the cable .
Sensor arrangement comprising multiple distance sensors , which are arranged in a vehicle at spaced-apart locations and are designed to output a first distance measurement signal that is dependent on a distance from an obstacle that is spaced apart from the vehicle , each distance sensor comprising: - a sensor circuit having a distance measurement sensor for generating the first distance measurement signal on the basis of the distance, wherein a magnetic field probe is installed in the distance sensor to output a second measurement signal that is dependent on a magnetic field to be detected, characterized in that the sensor circuit and the magnetic field probe are accommodated together in a housing . - a sensor circuit having a distance measurement sensor for generating the first distance measurement signal on the basis of the distance, wherein a magnetic field probe is installed in the distance sensor to output a second measurement signal that is dependent on a magnetic field to be detected, characterized in that
Device for determining the parameters of a controller for a controlled system , wherein the device is designed to determine, on the basis of detected input and output signals (u, y) of the controlled system , a simulation model for the controlled system and to identify the parameters thereof, characterised in that the controller is designed as a model slave controller, wherein a slave controller for the controlled system is arranged downstream of a pilot control process for the controlled system and the pilot control process has a master controller which is arranged in a feedback loop of a model control loop within the pilot control process and has a simulation model for the controlled system , and in that the device for determining parameters is designed to define on the basis of the previously determined simulation model and its identified parameters, the simulation model in the pilot control process - wherein on the basis of a first model-based design method and the previously determined simulation model parameters of a P or PD controller as a master controller in the pilot control process , and - on the basis of a second model-based design method and the previously determined simulation model , parameters of a PI or PID controller as a slave controller for the controlled system . - wherein on the basis of a first model-based design method and the previously determined simulation model parameters of a P or PD controller as a master controller in the pilot control process , and - on the basis of a second model-based design method and the previously determined simulation model , parameters of a PI or PID controller as a slave controller for the controlled system .
Ionic conductive polymer composition defined by the following general formula: PH x + SOH y + z MCl : wherein: - PH represents a polymer containing protic functions formed by hydroxyl groups; - SOH represents a plasticising polyol with a molecular mass greater than or equal to 75 g/mol and less than or equal to 250 g/mol, in the form of discrete molecules; - MCl represents sodium or potassium chloride (M = Na or K); - 0.3 ≤ x/y ≤ 3, x representing the quantity by weight of the polymer PH, and y the quantity by weight of the polyol SOH; - 0.5 % ≤ z ≤ 15%, z representing the percentage by weight of MCl with respect to the polyol SOH. - PH represents a polymer containing protic functions formed by hydroxyl groups; - SOH represents a plasticising polyol with a molecular mass greater than or equal to 75 g/mol and less than or equal to 250 g/mol, in the form of discrete molecules; - MCl represents sodium or potassium chloride (M = Na or K); - 0.3 ≤ x/y ≤ 3, x representing the quantity by weight of the polymer PH, and y the quantity by weight of the polyol SOH; - 0.5 % ≤ z ≤ 15%, z representing the percentage by weight of MCl with respect to the polyol SOH.
A system comprising an illumination component , in particular comprising an electrical apparatus; a cable configured to be mechanically connected to the illumination component ; and a winch configured to wind and/or unwind the cable ; and a connector device comprising a bearing and configured to mechanically connect the illumination component to the cable in such a manner that, in a connected state, at least part of the illumination component is rotationally decoupled from the cable by means of the bearing , wherein the rotation refers to a rotation around an extension of the longitudinal axis of the unwound and tensioned portion of the cable, wherein the system is configured to supply power and/or data to the illumination component via the cable .
Drill string section of a drill string for drilling in the ground, wherein at least one marking , configured as a recess introduced into the outside of the drill string section , is arranged on the outside of the drill string section , by means of which marking abrasion can be recognised, characterised in that the drill string section is a housing of a percussion drilling device for drilling in the ground, in which section a main piston is arranged for a reciprocating motion.
A bone screw comprising a head part , a threaded part , and a flexible connection part between head part and threaded part , for transmitting a torsional force between head part and threaded part , and for allowing two bending movements in the opposite direction between head part and threaded part in the longitudinal axis of the screw, wherein head part and threaded part in each case have a longitudinal axis, which can be arranged offset in parallel to one another, and that in the case of an arrangement of head part and threaded part on a longitudinal axis, the screw has an ε-module of between 20,000 and 100,000 N/mm 2 against an elongation, characterized in that the flexible connection part as coupling has a first coupling element comprising a plug connection for transmitting torsional forces, and a second coupling element for transmitting tensile forces.
A nacelle for a wind turbine , the nacelle comprising: - a nacelle housing ; - a rotor hub ; - a rotor bearing for bearing the rotor hub on the nacelle housing , wherein a lubricating oil sump for receiving a lubricating oil for the sliding bearing element is formed in the nacelle housing and/or in the rotor hub , such that the lubricating oil sump is filled with lubricating oil up to a lubricating oil level , wherein the rotor bearing has at least one inner ring element and at least one outer ring element , wherein at least one oil-lubricated sliding bearing element having sliding surfaces is formed between the inner ring element and the outer ring element , characterized in that the at least one sliding bearing element is formed as a hydrodynamic sliding bearing, which is lubricatable without a pressure-increasing device, wherein at least a section of the rotor bearing is arranged in the lubricating oil sump vertically below the lubricating oil level . - a nacelle housing ; - a rotor hub ; - a rotor bearing for bearing the rotor hub on the nacelle housing , wherein a lubricating oil sump for receiving a lubricating oil for the sliding bearing element is formed in the nacelle housing and/or in the rotor hub , such that the lubricating oil sump is filled with lubricating oil up to a lubricating oil level , wherein the rotor bearing has at least one inner ring element and at least one outer ring element , wherein at least one oil-lubricated sliding bearing element having sliding surfaces is formed between the inner ring element and the outer ring element , characterized in that the at least one sliding bearing element is formed as a hydrodynamic sliding bearing, which is lubricatable without a pressure-increasing device, wherein at least a section of the rotor bearing is arranged in the lubricating oil sump vertically below the lubricating oil level .
A light emitting system comprising: - a driving control unit comprising a local control circuit ; - a light emitting array having at least one light emitting string of serially connected light emitting elements and being controlled by the driving control unit ; and - a power supply circuit connected to a current source and being adapted to provide a continuous power supply for said at least one light emitting string , wherein the power supply circuit comprises: - a voltage supply capacitor connected in-series to said light emitting array and being adapted to provide a supply voltage for said driving control unit ; and - a capacitor bypass switch connected in parallel with said voltage supply capacitor and being controlled by the local control circuit of said driving control unit , wherein said capacitor bypass switch is switched off by said local control circuit to charge said voltage supply capacitor with a charging current to maintain a continuous power supply without disturbing the current to said string of light emitting elements , and wherein said local control circuit comprises a sense circuitry adapted to measure the voltage of the voltage supply capacitor , characterized in that said sense circuitry comprises two comparators adapted to compare the voltage of the voltage supply capacitor respectively with a predetermined high threshold voltage and with a predetermined low threshold voltage, wherein if the voltage of the voltage supply capacitor reaches the high threshold voltage, the local control circuit is configured to switch the capacitor bypass switch on so that charging of said voltage supply capacitor is stopped, and wherein if the voltage of the voltage supply capacitor drops beneath the low threshold voltage, the local control circuit is configured to switch the capacitor bypass switch off to initiate charging of said voltage supply capacitor . - a driving control unit comprising a local control circuit ; - a light emitting array having at least one light emitting string of serially connected light emitting elements and being controlled by the driving control unit ; and - a power supply circuit connected to a current source and being adapted to provide a continuous power supply for said at least one light emitting string , - a voltage supply capacitor connected in-series to said light emitting array and being adapted to provide a supply voltage for said driving control unit ; and - a capacitor bypass switch connected in parallel with said voltage supply capacitor and being controlled by the local control circuit of said driving control unit ,
An aqueous pharmaceutical antibody formulation, comprising: (i) Avelumab in a concentration of 1 mg/mL to 30 mg/mL as the antibody; (ii) acetate or histidine in a concentration of 5 mM to 15 mM as the buffering agent; (iii) D-mannitol or trehalose in a concentration of 240 mM to 320 mM, or a combination of arginine HCI in a concentration of 50 to 150 mM and glutamic acid in a concentration of 25 mM to 75 mM as a stabiliser; (iv) Poloxamer 188 or Polysorbate 20 in a concentration of 0.25 mg/mL to 0.75 mg/mL, as surfactant, or no surfactant; wherein the formulation does not comprise an antioxidant, and further wherein the formulation has a pH of 5.0 to 6.0. (i) Avelumab in a concentration of 1 mg/mL to 30 mg/mL as the antibody; (ii) acetate or histidine in a concentration of 5 mM to 15 mM as the buffering agent; (iii) D-mannitol or trehalose in a concentration of 240 mM to 320 mM, or a combination of arginine HCI in a concentration of 50 to 150 mM and glutamic acid in a concentration of 25 mM to 75 mM as a stabiliser; (iv) Poloxamer 188 or Polysorbate 20 in a concentration of 0.25 mg/mL to 0.75 mg/mL, as surfactant, or no surfactant;
A wireless charger, comprising a front shell and a rear shell , wherein the front shell comprises a plane and a step seat arranged under the plane, in which a smart phone can be placed to be charged; an electromagnetic induction charging device is arranged between the front shell and the rear shell and comprises a magnetic induction coil for wirelessly charging a smart phone; characterized in that , a rear end of the electromagnetic induction device is provided with a cooling fan device, and the cooling fan device comprises: a cooling fan adapted to extract air to discharge air in the direction of an air duct; a sealing device configured to seal the air duct and the cooling fan together; and an air duct; the front shell is provided with a ring of cooling holes to enable air to enter from the cooling holes to increase airflow when the cooling fan works; and wherein, an opening is provided on the rear shell , and the opening faces the air duct to dissipate heat.
Method for producing a knitted fabric with at least one floating thread on a flat knitting machine with at least two needle beds, characterised by the steps: a) forming a single-surface basic knitted fabric (11, 21, 31, 41, 51, 70.1, 70.2, 80.1, 80.2) up to the stitch row in which the floating thread is to be inserted; b) bringing the floating thread into a starting position (S) on the first knitted fabric side with the aid of a thread guide, from which position (S) the floating thread should be visible on the second knitted fabric side; c) transferring of several adjacently arranged stitches of a number that equals the desired width of the floating thread area visible on the second knitted fabric side, starting at the starting position (S) of the floating thread ; d) laying the floating thread over the re-hung stitches with the aid of the thread guide; e) hanging the transferred stitches back onto their original needles; f) forming stitch rows of the basic knitted fabric (11, 21, 31, 41, 51, 70.1, 70.2, 80.1, 80.2) of any number. a) forming a single-surface basic knitted fabric (11, 21, 31, 41, 51, 70.1, 70.2, 80.1, 80.2) up to the stitch row in which the floating thread is to be inserted; b) bringing the floating thread into a starting position (S) on the first knitted fabric side with the aid of a thread guide, from which position (S) the floating thread should be visible on the second knitted fabric side; c) transferring of several adjacently arranged stitches of a number that equals the desired width of the floating thread area visible on the second knitted fabric side, starting at the starting position (S) of the floating thread ; d) laying the floating thread over the re-hung stitches with the aid of the thread guide; e) hanging the transferred stitches back onto their original needles; f) forming stitch rows of the basic knitted fabric (11, 21, 31, 41, 51, 70.1, 70.2, 80.1, 80.2) of any number.
A pneumatic tire (1, 1', 1", 1′′′) comprising a tread portion , two bead portions , two sidewalls extending between the tread portion and the respective bead portion , an inner surface defining a tire cavity , a sealant material layer covering the inner surface radially below the tread portion within the tire cavity , at least one noise dampening strip which is partially covering and attached to the sealant material along a circumferential direction and on a radially inner side of the sealant material layer , characterised in that the sealant material layer has at least one plateau region supporting the noise dampening strip , and one or more bottom regions provided axially beside the plateau region , and wherein the plateau region extends out of the bottom regions in a radially inner direction.
A variable area turbine arrangement , comprising: a variable vane assembly (165-1; 165-2; 165-3); and a secondary flow system (180-1; 180-2; 180-3) associated with said variable vane assembly (165-1; 165-2; 165-3), wherein flow modulation of a cooling fluid through said secondary flow system (180-1; 180-2; 180-3) is changed simultaneously with actuation of said variable vane assembly (165-1; 165-2; 165-3), characterized in that : the secondary flow system (180-1; 180-2; 180-3) includes a TOBI assembly (150-1; 150-2; 150-3). a variable vane assembly (165-1; 165-2; 165-3); and a secondary flow system (180-1; 180-2; 180-3) associated with said variable vane assembly (165-1; 165-2; 165-3), wherein flow modulation of a cooling fluid through said secondary flow system (180-1; 180-2; 180-3) is changed simultaneously with actuation of said variable vane assembly (165-1; 165-2; 165-3), characterized in that : the secondary flow system (180-1; 180-2; 180-3) includes a TOBI assembly (150-1; 150-2; 150-3).