mhurhangee/patent-ind-claim-en huggingface dataset:
A modular lighting system comprising: an array of LEDs ; a driver module providing a communication port and adapted to: communicate with each of a plurality of different external devices (32. 88, 90) that are separate from the driver module, over a communication bus via the communication port; and drive the array of LEDs in response to information received from at least one of the plurality of different external devices that is coupled to the communication bus such that the driver module is configured to be controlled by each of the plurality of different external devices, wherein: one of the plurality of different external devices (90 O ) comprises an occupancy sensor and the driver module is adapted to receive occupancy related information from the occupancy sensor; and a bridge module comprising one of the plurality of different external devices, the bridge module adapted to communicate with the driver module using a first protocol and communicate with a remote control system using a second protocol, which is different from the first protocol, wherein the driver module is configured to provide power directly to the plurality of different external devices, including the bridge module, via a power port. an array of LEDs ; a driver module providing a communication port and adapted to: communicate with each of a plurality of different external devices (32. 88, 90) that are separate from the driver module, over a communication bus via the communication port; and drive the array of LEDs in response to information received from at least one of the plurality of different external devices that is coupled to the communication bus such that the driver module is configured to be controlled by each of the plurality of different external devices, wherein: one of the plurality of different external devices (90 O ) comprises an occupancy sensor and the driver module is adapted to receive occupancy related information from the occupancy sensor; and communicate with each of a plurality of different external devices (32. 88, 90) that are separate from the driver module, over a communication bus via the communication port; and drive the array of LEDs in response to information received from at least one of the plurality of different external devices that is coupled to the communication bus such that the driver module is configured to be controlled by each of the plurality of different external devices, wherein: one of the plurality of different external devices (90 O ) comprises an occupancy sensor and the driver module is adapted to receive occupancy related information from the occupancy sensor; and a bridge module comprising one of the plurality of different external devices, the bridge module adapted to communicate with the driver module using a first protocol and communicate with a remote control system using a second protocol, which is different from the first protocol, wherein the driver module is configured to provide power directly to the plurality of different external devices, including the bridge module, via a power port.
A method of treating wood or a wood product comprising the step of contacting the wood or the wood product with an aqueous wood preservative composition, the aqueous wood preservative composition comprising an aqueous carrier, a micronized copper compound, wherein the copper compound is basic copper carbonate, and penflufen, in a copper : penflufen ratio between 5:1 to 200: 1, wherein the copper loading into wood is between 40 to 8009 g/m 3 and the penflufen loading into wood is between 4 to 200 g/m 3 to produce a treated wood or wood product.
A safety device for monitoring at least one machine , the safety device comprising at least one sensor for generating sensor data relating to the machine and a processing unit for the sensor data, which processing unit is connected at least indirectly to the sensor and to the machine and is configured as a runtime environment having at least one computing node and running at least one logic unit on the computing node , wherein at least one logic unit comprises a safety function unit for safety-related evaluation of the sensor data in order to output a safety signal to the machine for triggering a safety response in case of a safety-relevant event, characterized in that the processing unit is further configured to generate logic units , to resolve them and/or to allocate them to a computing node , the runtime environment allocating the resources required on the available computing nodes to the respectively required logic units , and a suitable safety function unit being selected from a pool of existing safety function units in order to generate a safety function unit .
Method for driving a bridge rectifier having active switching elements (S), wherein, in normal operation, at least one of the active switching elements (S) is driven by a voltage signal, the voltage of which is changed within at least one switching time from a first voltage value at the beginning of the switching time to a second voltage value at the end of the switching time, wherein the lower of the first and second voltage values is below a threshold voltage of the switching element (S) and the higher of the first and second voltage values is above the threshold voltage of the switching element (S), wherein upon detection of a load drop at the bridge rectifier the at least one switching time is extended by a pre-settable period of time so that an increase in the voltage signal during switching is reduced.
An operator assembly for moving a window vent relative to a window frame , the operator assembly comprising: a base adapted to be fixed to the window frame, the base at least partially defining a channel ; an arm mounted for rotation relative to the base between an open position and a closed position; and a drive member received in the channel for linear motion therein relative to the base and the arm among a first position in which the drive member engages a locking feature of the window vent with the arm in the closed position, a second position in which the drive member is spaced apart from and disengaged from the locking feature without rotating the arm out of the closed position, and a third position in which the drive member is further spaced apart from the locking feature, wherein movement of the drive member from the second position to the third position moves the arm from the closed position to the open position; a drive assembly comprising the arm, the drive member, and a torque-amplifying gear set; and wherein the torque-amplifying gear set comprises a toothed rack on the drive member, a drive gear , a reduction gear , and gear teeth disposed on the arm; wherein the arm comprises a slot and the drive member comprises a tab ; and wherein in the closed position the tab is received in the slot to cinch the arm in the closed position. a base adapted to be fixed to the window frame, the base at least partially defining a channel ; an arm mounted for rotation relative to the base between an open position and a closed position; and a drive member received in the channel for linear motion therein relative to the base and the arm among a first position in which the drive member engages a locking feature of the window vent with the arm in the closed position, a second position in which the drive member is spaced apart from and disengaged from the locking feature without rotating the arm out of the closed position, and a third position in which the drive member is further spaced apart from the locking feature, wherein movement of the drive member from the second position to the third position moves the arm from the closed position to the open position; a drive assembly comprising the arm, the drive member, and a torque-amplifying gear set; and wherein the torque-amplifying gear set comprises a toothed rack on the drive member, a drive gear , a reduction gear , and gear teeth disposed on the arm; wherein the arm comprises a slot and the drive member comprises a tab ; and wherein in the closed position the tab is received in the slot to cinch the arm in the closed position.
A battery-powered device comprising: a body ; a battery container in the body for receiving at least one cylindrical battery in a longitudinal direction of the body; and a pressing member installed in the battery container for separating the at least one battery from the body, the pressing member comprising: a presser including a curved surface corresponding to that of the at least one battery; a rotary shaft arranged to rotate about an axis that is transverse to that of the battery container and perpendicular to the longitudinal axis of the at least one battery; and a button connected to the presser via the rotary shaft , wherein the button, the rotary shaft and the pressing member are arranged along an edge of the battery container in the longitudinal direction of the at least one battery; and in response to the button being pressed downwards, the presser is arranged to rotate upwards about the rotary shaft to press the at least one battery upwards to separate the at least one battery from the body. a body ; a battery container in the body for receiving at least one cylindrical battery in a longitudinal direction of the body; and a pressing member installed in the battery container for separating the at least one battery from the body, the pressing member comprising: a presser including a curved surface corresponding to that of the at least one battery; a rotary shaft arranged to rotate about an axis that is transverse to that of the battery container and perpendicular to the longitudinal axis of the at least one battery; and a button connected to the presser via the rotary shaft , a presser including a curved surface corresponding to that of the at least one battery; a rotary shaft arranged to rotate about an axis that is transverse to that of the battery container and perpendicular to the longitudinal axis of the at least one battery; and a button connected to the presser via the rotary shaft , wherein the button, the rotary shaft and the pressing member are arranged along an edge of the battery container in the longitudinal direction of the at least one battery; and in response to the button being pressed downwards, the presser is arranged to rotate upwards about the rotary shaft to press the at least one battery upwards to separate the at least one battery from the body.
A liquid composition comprising an essential oil from peel, limonin, and rutin, wherein a content of the essential oil from peel is in a range of 0.2-3.5% by volume based on the total amount of the composition; wherein a concentration of the limonin with respect to acidity is in the range of 10-300 mg/kg/Acid as defined in the description wherein a concentration of the rutin with respect to acidity is in the range of 10-50 mg/kg/Acid; wherein a rutin to limonin weight ratio (rutin/limonin) is 1 or less; wherein the acidity is 2.0% or less; wherein the essential oil from peel is obtained by using one or more citrus fruits having juice with an acidity of at least 2.0%; and wherein the liquid composition is obtained by a method comprising removing the super surface layer (within 1 mm from the outer surface) by slicing the peel thinly enough not to rupture oil sacs in the peel.
A lighting system device configured to be included in a lighting system, wherein the lighting system includes an other element and wherein the lighting system is configured for bidirectional power line communication, the lighting system device comprising: a modulation element (M) configured to operatively couple to DC power lines, which are providing DC power in the lighting system; and a processor (μC B), a switch (S) configured to control the in-circuit presence of the modulation element (M) in response to a modulation control signal provided by the processor (μC B), so as to modulate one of (i) current flow through the modulation element (M), or (ii) voltage drop across the other element, thereby providing an outgoing power line communication signal for transmission over the DC power lines, and wherein the processor (μC B) is configured in the case of (i): current flow through the modulation element (M) being modulated, to sense the amount of voltage drop across the other element, and in the case of (ii): voltage drop across the other element being modulated, to sense the amount of current flow through the other element, the processor (μC B) thereby being configured to receive and interpret an incoming power line communication signal on the DC power lines, which is provided by the other element through modulation of the current flow or the voltage drop. a modulation element (M) configured to operatively couple to DC power lines, which are providing DC power in the lighting system; and a processor (μC B), a switch (S) configured to control the in-circuit presence of the modulation element (M) in response to a modulation control signal provided by the processor (μC B), so as to modulate one of (i) current flow through the modulation element (M), or (ii) voltage drop across the other element, (i) current flow through the modulation element (M), or (ii) voltage drop across the other element, thereby providing an outgoing power line communication signal for transmission over the DC power lines, and wherein the processor (μC B) is configured in the case of (i): current flow through the modulation element (M) being modulated, to sense the amount of voltage drop across the other element, and in the case of (ii): voltage drop across the other element being modulated, to sense the amount of current flow through the other element, current flow through the modulation element (M) being modulated, to sense the amount of voltage drop across the other element, and in the case of (ii): voltage drop across the other element being modulated, to sense the amount of current flow through the other element, the processor (μC B) thereby being configured to receive and interpret an incoming power line communication signal on the DC power lines, which is provided by the other element through modulation of the current flow or the voltage drop.
A method for resetting life diagnosis alarm of a contact of a contactor, including the following steps: Step A: detecting a reset signal by a microcontrol unit; Step B: when the microcontrol unit has detected the reset signal, checking the state of the diagnosis alarm through the microcontrol unit; and when the diagnosis alarm is in an active state, the microcontrol unit: Step C: controlling the indicator to give a first indication signal for confirming a reset operation of the diagnosis alarm; Step D: resetting life diagnosis data; Step E: controlling the opening and closing of the contact of the contactor through an actuator. Step A: detecting a reset signal by a microcontrol unit; Step B: when the microcontrol unit has detected the reset signal, checking the state of the diagnosis alarm through the microcontrol unit; and when the diagnosis alarm is in an active state, the microcontrol unit: Step C: controlling the indicator to give a first indication signal for confirming a reset operation of the diagnosis alarm; Step D: resetting life diagnosis data; Step E: controlling the opening and closing of the contact of the contactor through an actuator. Step C: controlling the indicator to give a first indication signal for confirming a reset operation of the diagnosis alarm; Step D: resetting life diagnosis data; Step E: controlling the opening and closing of the contact of the contactor through an actuator.
A hyperpolarization-activated cyclic nucleotide-gated channel (HCN) inhibitor for use in treating a tumour or cancer of a subject, wherein the tumour or cancer is breast cancer, ovarian cancer, uterine cancer, prostate cancer, testicular germ cell tumour, brain cancer, gastric cancer, esophagus cancer, lung cancer, liver cancer, and colon cancer.
A thread-forming or self-tapping screw made of hardened and tempered steel, stainless steel or highly corrosion-resistant austenitic materials for direct screw connection into light metal or alloys thereof and into brass or into other non-ferrous metals, having a shank provided with a thread having at least one asymmetric thread turn with a plurality of windings , wherein the thread has an external diameter (Da), a core diameter (Dk) and a thread pitch (P), wherein the thread turn has thread flanks with a flank angle phi, wherein the thread flanks have a load-bearing flank and a counter-flank which abut one another directly or indirectly in a thread bottom and at a thread tip and wherein a flank angle phiL of the load-bearing flank is smaller than a flank angle phiG of the counter-flank , wherein the flank angle phiL of the load-bearing flank is at least 25° and the flank angle phiG of the counter-flank is at least 40°, wherein the flank angle phi is at least 65° to at most 95°, wherein the thread pitch P is at least 1.5 times and at most 2.5 times the pitch of a metric thread of the same nominal diameter and wherein the core diameter Dk is 0.8 times to 0.95 times the core diameter of a metric thread of the same nominal diameter.
Assembly for calibrating a camera to be calibrated, comprising a first positioning base for receiving a reference camera adapter or for receiving an adapter for the camera to be calibrated, an auxiliary target , the reference camera adapter for receiving a reference camera housing or the auxiliary target , the adapter for receiving the camera to be calibrated, a second positioning base for receiving the reference camera housing , at least one calibration target , arranged in such a way that it can be captured by the camera to be calibrated or the reference camera received by the first positioning base , the reference camera housing for receiving the reference camera , wherein the first positioning base is arranged (position 54) in such a way that a first image captured by the reference camera received in the first positioning base contains the at least one calibration target , and wherein the second positioning base is arranged (position 55 or position 56) in such a way that a second image captured by the reference camera received in the second positioning base contains the at least one calibration target and the auxiliary target received in the first positioning base . a first positioning base for receiving a reference camera adapter or for receiving an adapter for the camera to be calibrated, an auxiliary target , the reference camera adapter for receiving a reference camera housing or the auxiliary target , the adapter for receiving the camera to be calibrated, a second positioning base for receiving the reference camera housing , at least one calibration target , arranged in such a way that it can be captured by the camera to be calibrated or the reference camera received by the first positioning base , the reference camera housing for receiving the reference camera , wherein the first positioning base is arranged (position 54) in such a way that a first image captured by the reference camera received in the first positioning base contains the at least one calibration target , and wherein the second positioning base is arranged (position 55 or position 56) in such a way that a second image captured by the reference camera received in the second positioning base contains the at least one calibration target and the auxiliary target received in the first positioning base .
A transport container including: a plurality of side walls including a door in at least one of the side walls through which the inside of the container can be accessed to insert and remove goods from the container; a floor comprised of a plurality of load supporting beams each connected directly or indirectly to at least one side wall of the container, a plurality of weight sensors located on top of the load supporting beams, and an intermediate layer located on top of the weight sensors, wherein the intermediate layer is not connected to the side walls so that any load placed on the intermediate layer will be transferred on to at least one of the plurality of weight sensors which will sense the weight of the load and transfer the weight of the load onto at least one of the plurality of load supporting beams; and an upper floor placed over the intermediate layer onto which the load is placed in use, wherein the upper floor is not connected to the side walls so that any load placed on the upper floor will be transmitted to the intermediate layer via the upper floor, wherein at least some of the side walls have, at the bottom thereof, a lower frame element to which a sheet material is connected to form the complete side wall, and wherein the combined height of the load supporting beams, weight sensors, intermediate layer and upper floor is the same as or less than the height of the lower frame element. a plurality of side walls including a door in at least one of the side walls through which the inside of the container can be accessed to insert and remove goods from the container; a floor comprised of a plurality of load supporting beams each connected directly or indirectly to at least one side wall of the container, a plurality of weight sensors located on top of the load supporting beams, and an intermediate layer located on top of the weight sensors, wherein the intermediate layer is not connected to the side walls so that any load placed on the intermediate layer will be transferred on to at least one of the plurality of weight sensors which will sense the weight of the load and transfer the weight of the load onto at least one of the plurality of load supporting beams; and an upper floor placed over the intermediate layer onto which the load is placed in use, wherein the upper floor is not connected to the side walls so that any load placed on the upper floor will be transmitted to the intermediate layer via the upper floor, wherein at least some of the side walls have, at the bottom thereof, a lower frame element to which a sheet material is connected to form the complete side wall, and wherein the combined height of the load supporting beams, weight sensors, intermediate layer and upper floor is the same as or less than the height of the lower frame element.
A heavy-duty vehicle axle/suspension system having damping features comprising: a damping means disposed between a longitudinally-extending frame main member of said vehicle and a longitudinally-extending beam of a suspension assembly of said axle/suspension system of said vehicle, in which said damping means (100;200;300) provides damping to said suspension assembly that is directional damping perpendicular to a selected datum (18;101) which is said beam of the suspension assembly, said main member of the vehicle, or a line drawn through a pivot of the beam and a centre of an axle of the suspension assembly, or in which said damping means (100;200) providing directional damping comprises a first end and a second end, and said first end or said second end of said damping means is fixedly connected to said beam or to said main member of said vehicle. a damping means disposed between a longitudinally-extending frame main member of said vehicle and a longitudinally-extending beam of a suspension assembly of said axle/suspension system of said vehicle, in which said damping means (100;200;300) provides damping to said suspension assembly that is directional damping perpendicular to a selected datum (18;101) which is said beam of the suspension assembly, said main member of the vehicle, or a line drawn through a pivot of the beam and a centre of an axle of the suspension assembly, or in which said damping means (100;200) providing directional damping comprises a first end and a second end, and said first end or said second end of said damping means is fixedly connected to said beam or to said main member of said vehicle.