mhurhangee/patent-ind-claim-en huggingface dataset:
A chiller system comprising: a controller configured to control and set thresholds for one or more parameters of the chiller system , wherein the chiller system includes one or more cooling towers , one or more pumps , and one or more water chillers ; one or more sensors operably coupled to the controller , wherein the one or more sensors are configured to measure values for one or more parameters; and a processor coupled to the controller , wherein the processor is configured to generate a coordination map based on the measured values and the thresholds for the one or more parameters, configure an operating setpoint for the chiller system based on the coordination map, and control the chiller system based at least in part on the configured operating setpoint; characterized in that : the operating setpoint is at least one of a chilled water supply temperature setpoint or a condenser water supply temperature setpoint. a controller configured to control and set thresholds for one or more parameters of the chiller system , wherein the chiller system includes one or more cooling towers , one or more pumps , and one or more water chillers ; one or more sensors operably coupled to the controller , wherein the one or more sensors are configured to measure values for one or more parameters; and a processor coupled to the controller , wherein the processor is configured to generate a coordination map based on the measured values and the thresholds for the one or more parameters, configure an operating setpoint for the chiller system based on the coordination map, and control the chiller system based at least in part on the configured operating setpoint; characterized in that : the operating setpoint is at least one of a chilled water supply temperature setpoint or a condenser water supply temperature setpoint.
A process for the preparation of a composite containing submicron sized particles of a metal oxide pigment and natural-based organic compound, comprising the following steps: a) providing a metal oxide pigment and an oligomeric and/or polymeric carbohydrate; b) grinding said metal oxide pigment and said oligomeric and/or polymeric carbohydrate inside a ball mill, so as to obtain a pigment composite comprising metal oxide particles having a submicron granulometry and an outer surface partially or completely covered by said oligomeric and/or polymeric carbohydrate; wherein the mass ratio between said metal oxide pigment and said oligomeric and/or polymeric carbohydrate provided during said step a) is comprised between 1:10 and 10:1. a) providing a metal oxide pigment and an oligomeric and/or polymeric carbohydrate; b) grinding said metal oxide pigment and said oligomeric and/or polymeric carbohydrate inside a ball mill, so as to obtain a pigment composite comprising metal oxide particles having a submicron granulometry and an outer surface partially or completely covered by said oligomeric and/or polymeric carbohydrate;
A method of operating an autonomous driving vehicle (ADV), the method comprising: determining a confidence score for an obstacle, in response to detecting the obstacle based on sensor data obtained from one or more sensors, the confidence score representing a confidence level concerning certainty of the obstacle; generating a driving decision for the ADV based on a prediction of potential movement of the obstacle; being characterized in that , the method further comprises: in response to determining that the confidence score is below a predetermined confidence threshold and a distance between the ADV and the obstacle is greater than a predetermined distance threshold, delaying executing the driving decision for a period of time, wherein the predetermined distance threshold is adjusted in real time based on speech of the ADV, speed of obstacle or type of obstacle; and in response to determining that the confidence score is not below the predetermined confidence threshold or the distance between the ADV and the obstacle is not greater than the predetermined distance threshold, planning a path to drive the ADV based on the driving decision without delay. determining a confidence score for an obstacle, in response to detecting the obstacle based on sensor data obtained from one or more sensors, the confidence score representing a confidence level concerning certainty of the obstacle; generating a driving decision for the ADV based on a prediction of potential movement of the obstacle; being characterized in that , the method further comprises: in response to determining that the confidence score is below a predetermined confidence threshold and a distance between the ADV and the obstacle is greater than a predetermined distance threshold, delaying executing the driving decision for a period of time, wherein the predetermined distance threshold is adjusted in real time based on speech of the ADV, speed of obstacle or type of obstacle; and in response to determining that the confidence score is not below the predetermined confidence threshold or the distance between the ADV and the obstacle is not greater than the predetermined distance threshold, planning a path to drive the ADV based on the driving decision without delay. in response to determining that the confidence score is below a predetermined confidence threshold and a distance between the ADV and the obstacle is greater than a predetermined distance threshold, delaying executing the driving decision for a period of time, wherein the predetermined distance threshold is adjusted in real time based on speech of the ADV, speed of obstacle or type of obstacle; and in response to determining that the confidence score is not below the predetermined confidence threshold or the distance between the ADV and the obstacle is not greater than the predetermined distance threshold, planning a path to drive the ADV based on the driving decision without delay.
An atomization device , wherein the atomization device comprises a liquid storage cavity , a liquid injection opening , and an injection structure ; the injection structure comprises an injection tube and a sealing member ; the injection tube runs through the liquid injection opening and extends into the liquid storage cavity , and a liquid inlet is formed in a side wall of the injection tube ; the sealing member is arranged on one end of the injection tube in the liquid storage cavity , the sealing member is sealed from an inner wall of the liquid storage cavity , and separates the liquid inlet from the liquid storage cavity ; when the injection tube is pushed into the liquid storage cavity , the injection tube moves from its original place into the liquid storage cavity , the sealing member is separated from the liquid injection opening , and the liquid inlet moves into the liquid injection opening to communicate with the liquid storage cavity ; and when the injection tube is not pushed, the injection tube moves outwards to its original place to separate the liquid inlet from the liquid storage cavity , characterized in that an exhaust gap (A) is defined between an outer surface of the injection tube and an inner ring of the liquid injection opening .
A method for producing a tubular equipment element (1; 34; 40, 50, 51) for a rail vehicle, wherein the tubular equipment element has at least one first tube portion (4; 31; 41) with a first wall thickness and at least one second tube portion (5; 32; 42) with a second wall thickness, wherein the second wall thickness is smaller than the first wall thickness, and the tubular equipment element has a constant or substantially constant outer diameter (A), characterised in that the method comprises the following steps: a) shaping (U; IHU) a preliminary tube product of constant or substantially constant wall thickness to form an intermediate tube product (3; 30), wherein in the intermediate tube product (3; 30) the wall thickness in the second tube portion (5; 32; 42) is reduced relative to the wall thickness in the first tube portion (4; 31; 41) and in the second tube portion (5; 32; 42) the outer diameter (A'; A") of the preliminary tube product is changed relative to the outer diameter in the first tube portion (4; 31; 41), b) shaping (IHU; U) the intermediate tube product (3; 30) so that a constant or substantially constant outer diameter (A) is obtained, wherein the wall thickness in the second tube portion (5; 32; 42) remains reduced relative to the wall thickness in the first tube portion (4; 31; 41), wherein at least one of the shaping steps is performed by internal high pressure forming (IHU). a) shaping (U; IHU) a preliminary tube product of constant or substantially constant wall thickness to form an intermediate tube product (3; 30), wherein in the intermediate tube product (3; 30) the wall thickness in the second tube portion (5; 32; 42) is reduced relative to the wall thickness in the first tube portion (4; 31; 41) and in the second tube portion (5; 32; 42) the outer diameter (A'; A") of the preliminary tube product is changed relative to the outer diameter in the first tube portion (4; 31; 41), b) shaping (IHU; U) the intermediate tube product (3; 30) so that a constant or substantially constant outer diameter (A) is obtained, wherein the wall thickness in the second tube portion (5; 32; 42) remains reduced relative to the wall thickness in the first tube portion (4; 31; 41),
A method for manufacturing a glass panel unit, the method comprising an assembling step, a first melting step, an evacuation step, and a sealing step, the assembling step including providing a glass panel unit assembly having a pair of glass substrates arranged to face each other; a peripheral wall having a frame shape and disposed between the pair of glass substrates ; a partition (420a-420p) provided to partition an internal space , surrounded with the pair of glass substrates and the peripheral wall , into a first space (510a-510g) and a second space , the partition (420a-420p) being lower in height than the peripheral wall ; an air passage being formed by a gap between the partition (420a-420p) and another partition (420a-420p) or a gap between the partition (420a-420p) and the peripheral wall , connecting the first space (510a-510g) and the second space together; and an evacuation port connecting the second space (510a-510g) to an external environment, the first melting step including melting the peripheral wall to hermetically bond the pair of glass substrates , the evacuation step including evacuating the first space (510a-510g) through the air passage , the second space (510a-510g), and the evacuation port , the sealing step including deforming the partition (420a-420p) to close the air passage , characterised in that in the first melting step, the partition (420a-420p) comes into contact with the pair of glass substrates after the peripheral wall comes into contact with the pair of glass substrates . the assembling step including providing a glass panel unit assembly having a pair of glass substrates arranged to face each other; a peripheral wall having a frame shape and disposed between the pair of glass substrates ; a partition (420a-420p) provided to partition an internal space , surrounded with the pair of glass substrates and the peripheral wall , into a first space (510a-510g) and a second space , the partition (420a-420p) being lower in height than the peripheral wall ; an air passage being formed by a gap between the partition (420a-420p) and another partition (420a-420p) or a gap between the partition (420a-420p) and the peripheral wall , connecting the first space (510a-510g) and the second space together; and an evacuation port connecting the second space (510a-510g) to an external environment, the first melting step including melting the peripheral wall to hermetically bond the pair of glass substrates , the evacuation step including evacuating the first space (510a-510g) through the air passage , the second space (510a-510g), and the evacuation port , the sealing step including deforming the partition (420a-420p) to close the air passage , characterised in that in the first melting step, the partition (420a-420p) comes into contact with the pair of glass substrates after the peripheral wall comes into contact with the pair of glass substrates .
Plastic film with thermochromic properties, in particular for agricultural use, comprising at least one layer A, wherein the layer A comprises a thermoplastic polymer in which thermochromic nanoparticles are embedded, and further layers B, characterized in that the thermochromic nanoparticles are stabilized against oxidation by means of an oxidation barrier, wherein the oxidation barrier is provided in the form of a layer arranged around the thermochromic nanoparticles and/or arranged on either side of the layer A.
A system for driver-vehicle interaction in a vehicle, comprising a soft key arrangement which is adapted to be located in the proximity of a steering wheel of said vehicle and having at least two soft keys (8a - 8c),, said display key arrangement being adapted to be located in the proximity of a dashboard of said vehicle, wherein said vehicle is associated with at least two function modes in a first set of function modes , each function mode being associated with a set of selectable options in order to affect a behaviour of the vehicle in each function mode, each function mode further being associated with a respective layout for said display key arrangement in order to display said set of selectable options, whereby, for each function mode layout, each display key (10a - 10c) is adapted to illustrate and correspond to a currently available selectable option of said set of selectable options for each soft key (8a - 8c), actuation of said soft key arrangement is adapted to both effectuate change between said function modes and to select at least one of said currently available selectable options associated with the chosen function mode characterized in that , each soft key (8a - 8c) corresponding to a display key (10a - 10c) on a display key arrangement having a corresponding layout as said soft key arrangement , and wherein each soft key (8a-8c) has different meaning when actuated at different situations depending on the current mode of operation of the system and/or the vehicle.
Furniture with a) a plurality of furniture rods (1-8) and b) a plurality of connecting elements for mechanically connecting two intersecting furniture rods (1-8) of the furniture, having b1) a connecting cord for passing through a respective transverse bore in the furniture rods (1-8) to be mechanically connected to one another in pairs, so that the connecting cord passes through the two transverse bores b2) a closed loop at each of the two ends of the connecting cord , and b3) in each case a knob for threading into the two loops of the connecting cord , the knobs being larger than the transverse holes in the furniture rods (1-8) and thus, in the threaded state, preventing the connecting cord from slipping through the transverse holes in the furniture rods (1-8), wherein b4) the knobs are each substantially disc-shaped, and b5) the knobs each have two mutually opposite recesses for threading into the loops of the connecting cord . a) a plurality of furniture rods (1-8) and b) a plurality of connecting elements for mechanically connecting two intersecting furniture rods (1-8) of the furniture, having b1) a connecting cord for passing through a respective transverse bore in the furniture rods (1-8) to be mechanically connected to one another in pairs, so that the connecting cord passes through the two transverse bores b2) a closed loop at each of the two ends of the connecting cord , and b3) in each case a knob for threading into the two loops of the connecting cord , the knobs being larger than the transverse holes in the furniture rods (1-8) and thus, in the threaded state, preventing the connecting cord from slipping through the transverse holes in the furniture rods (1-8), wherein b4) the knobs are each substantially disc-shaped, and b5) the knobs each have two mutually opposite recesses for threading into the loops of the connecting cord . b1) a connecting cord for passing through a respective transverse bore in the furniture rods (1-8) to be mechanically connected to one another in pairs, so that the connecting cord passes through the two transverse bores b2) a closed loop at each of the two ends of the connecting cord , and b3) in each case a knob for threading into the two loops of the connecting cord , the knobs being larger than the transverse holes in the furniture rods (1-8) and thus, in the threaded state, preventing the connecting cord from slipping through the transverse holes in the furniture rods (1-8), wherein b4) the knobs are each substantially disc-shaped, and b5) the knobs each have two mutually opposite recesses for threading into the loops of the connecting cord .
A pharmaceutical composition comprising at least one compound of Formula (I): wherein R 1 is KF 3 B, (HO) 2 B, NaF 3 B, wherein the R 1 substituent point of attachment is on the Boron atom; and R 2 is methyl or hydrogen, or a pharmaceutically-acceptable salt thereof, for use in the treatment and/or prophylaxis of a cellular proliferative disease, wherein said at least one compound is administered in an amount from 0.001 mg/kg/day to 1 mg/kg/day. R 1 is KF 3 B, (HO) 2 B, NaF 3 B, wherein the R 1 substituent point of attachment is on the Boron atom; and R 2 is methyl or hydrogen,
Primer for coating polyolefins, comprising a film-forming dispersion or solution, characterized in that a polymer type A, a polyolefin or a polyolefin mixture, is present, a polymer type B, a (meth)acrylate homo- or/and copolymer comprising standard methacrylates and/or standard acrylates, is present, and a polymer type AB, a graft copolymer made of polymer type A and polymer type B, is present, and that the film-forming dispersion or solution is halogen-free and acid-free, where acid-free means at most 70mmol of acid groups / 1g of polymer and halogen-free means at most 10mmol of halogen atoms / 1kg of polymer, and in that the amount of polymer type A is from 5 to 60% by weight, the amount of polymer type B is from 5 to 70% by weight, and the amount of polymer type AB is from 5 to 70% by weight, based on the entirety of polymer types A, B and AB.
Radiation field generating system comprising a radiation field providing device and a radiation field amplifying device , said radiation field providing device is configured to provide and introduce a radiation field into said radiation field amplifying device , said radiation field amplifying device comprises at least one laser active medium which is configured to exhibit a population inversion and said radiation field amplifying device is configured to amplify the introduced radiation field to an amplified radiation field wherein the radiation field providing device is configured to provide said introduced radiation field with a first contribution and a second contribution and said first contribution and said second contribution differ in at least one characteristic property, wherein one of said first and said second contributions has a radial polarization and the other of said first and said second contribution has an azimuthal polarization, in particular with said radial polarization and said azimuthal polarization being radial and azimuthal, respectively, with respect to an axis along which said contributions propagate, characterized in that the radiation field generating system is configured so that each of said contributions is switchable between different operational modes by said radiation field providing device , wherein said different operational modes of said contributions comprise at least a high mode and a low mode with an intensity of the respective contribution in said high mode being larger than in said low mode, and wherein said radiation field providing device is configured to provide said second contribution in the low mode when it provides said first contribution in the high mode, and/or wherein said radiation field providing device is configured to provide said second contribution in the high mode when it provides said first contribution in the low mode. one of said first and said second contributions has a radial polarization and the other of said first and said second contribution has an azimuthal polarization, in particular with said radial polarization and said azimuthal polarization being radial and azimuthal, respectively, with respect to an axis along which said contributions propagate, characterized in that the radiation field generating system is configured so that each of said contributions is switchable between different operational modes by said radiation field providing device , wherein said different operational modes of said contributions comprise at least a high mode and a low mode with an intensity of the respective contribution in said high mode being larger than in said low mode, and wherein said radiation field providing device is configured to provide said second contribution in the low mode when it provides said first contribution in the high mode, and/or wherein said radiation field providing device is configured to provide said second contribution in the high mode when it provides said first contribution in the low mode.
A battery mounting structure for mounting a battery in a luggage space of a vehicle having a rear pillar that is placed at a boundary between a side surface and a back surface of the vehicle and that has a flange which protrudes to a front side; the battery mounting structure comprising: a battery that is to be placed in the luggage space and that has a first electric power terminal which protrudes upward near a rear end of the battery ; a battery cover that covers at least a part of the battery ; an insulating sheet that is attached to the battery cover so as to be positioned between the first electric power terminal and the flange . a battery that is to be placed in the luggage space and that has a first electric power terminal which protrudes upward near a rear end of the battery ; a battery cover that covers at least a part of the battery ; an insulating sheet that is attached to the battery cover so as to be positioned between the first electric power terminal and the flange .