mhurhangee/patent-ind-claim-en huggingface dataset:
A washing machine comprising: - a chamber for receiving goods to be washed, - a tank adapted to contain a liquid, - a heat pump comprising a first heat exchanger , a second heat exchanger , a compressor and a pressure lowering device forming a circuit comprising a heat transfer fluid, the first heat exchanger being adapted to cool said heat transfer fluid and to heat water to be used in the chamber , the second heat exchanger being adapted to heat said heat transfer fluid and to cool the liquid contained in the tank , a liquid circulation conduit being associated to the tank , characterized in that, to supply heat to the tank during operation of the heat pump , washing machine further comprises an additional, fluid to air heat exchanger connected into such liquid circulation conduit such that liquid is circulated between the tank and said additional, fluid to air heat exchanger , a controllable fan associated with said additional heat exchanger and a control unit configured to control the controllable fan during operation of the heat pump . - a chamber for receiving goods to be washed, - a tank adapted to contain a liquid, - a heat pump comprising a first heat exchanger , a second heat exchanger , a compressor and a pressure lowering device forming a circuit comprising a heat transfer fluid, the first heat exchanger being adapted to cool said heat transfer fluid and to heat water to be used in the chamber , the second heat exchanger being adapted to heat said heat transfer fluid and to cool the liquid contained in the tank , a liquid circulation conduit being associated to the tank ,
Industrial truck , in particular electrically operated industrial truck, having a lateral frame opening for accommodating a power-supply unit, in particular a traction battery, and having a flap , which is provided for covering the frame opening and can be moved between a closed position and an open position by means of a multiple-joint hinge , in particular a four-joint hinge, wherein the multiple-joint hinge has a first bracket and a second bracket , wherein the first bracket is mounted for pivoting action on a first fixed-location axis of rotation (D1) and on a first alterable-location joint axis (G1), and the second bracket is mounted for pivoting action on a second fixed-location axis of rotation (D2) and on a second alterable-location joint axis (G2), characterized in that the multiple-joint hinge is provided with a frictional-force-generating damping device , which keeps the flap in the open position, wherein the frictional-force-generating damping device has at least one frictional contact (21a; 21b; 21c; 21d), which is formed between one of the two brackets (16; 17) of the multiple-joint hinge and a vehicle-mounted component , wherein one of the two brackets (16; 17) is formed, in the region of the fixed-location axis of rotation (D1; D2), from at least two mutually parallel and spaced-apart bracket portions , wherein a respective frictional contact is formed on the upper side and on the underside of each bracket portion , and wherein the vehicle-mounted component , in the region of the fixed-location axis of rotation (D1; D2), is formed from at least three mutually parallel and spaced-apart component portions between which the portions of the bracket are arranged, wherein a first portion of the vehicle-mounted component is arranged on the upper side of the first portion of the bracket and forms the frictional contact , which is formed on the upper side of the first portion of the bracket , a second portion of the vehicle-mounted component is arranged between the underside of the first portion of the bracket and the upper side of the second portion of the bracket and forms the frictional contact , which is formed on the underside of the first portion of the bracket , and the frictional contact , which is formed on the upper side of the second portion of the bracket , and a third portion of the vehicle-mounted component is arranged on the underside of the second portion of the bracket and forms the frictional contact , which is formed on the underside of the second portion of the bracket .
A display device , comprising: a plurality of pixels arranged in a matrix of rows and columns; and an antenna radiator configured with one or more conductors that are arranged along the rows and columns, characterised in that the antenna radiator is located within a layer that is formed by the plurality of pixels , wherein the one or more conductors extend between the plurality of pixels to cross each other, thereby forming the antenna radiator in a mesh. a plurality of pixels arranged in a matrix of rows and columns; and an antenna radiator configured with one or more conductors that are arranged along the rows and columns, characterised in that the antenna radiator is located within a layer that is formed by the plurality of pixels , wherein the one or more conductors extend between the plurality of pixels to cross each other, thereby forming the antenna radiator in a mesh.
A footrest for a tricycle, the tricycle having a fork rotatably securing a front wheel , a tricycle body extending distal the fork , and a pair of rear wheels rotatably connected to the tricycle body , the footrest comprising: a housing having a foot platform and a retaining assembly , the foot platform having a top surface and a bottom surface, the top surface being adapted to receive a foot of the user, wherein when the footrest is secured to the tricycle the retaining assembly is adapted to separately engage at least two of (a) a lower portion of the fork of the tricycle, (b) a fender for the front wheel of the tricycle or an upper portion of the fork of the tricycle, and (c) a crank of the tricycle, and wherein the retaining assembly is adapted to be separately secured to the lower portion of the fork of the tricycle, the crank of the tricycle, and one of the fender for the front wheel of the tricycle and the upper portion of the fork of the tricycle.
A method for carrying out an eye examination on an examinee, comprising the steps of: providing a display configured for displaying a visual stimulus; forming a visual path between said display and at least one eye of the examinee; displaying on said display a series of visual stimuli on randomized locations with respect to the display, each of one of said visual stimulus having visual characteristics; detecting reflexive eye response of said at least one eye in response to said displaying of said series of visual stimuli; assessing vision acuity of said at least one eye in accordance with said reflexive eye response, said randomized locations, and said visual characteristics of said visual stimulus. providing a display configured for displaying a visual stimulus; forming a visual path between said display and at least one eye of the examinee; displaying on said display a series of visual stimuli on randomized locations with respect to the display, each of one of said visual stimulus having visual characteristics; detecting reflexive eye response of said at least one eye in response to said displaying of said series of visual stimuli; assessing vision acuity of said at least one eye in accordance with said reflexive eye response, said randomized locations, and said visual characteristics of said visual stimulus.
Method for producing a three-dimensional object , comprising the following steps: manufacturing a printing structure , which defines an interior space , from a printing material by means of 3D printing; introducing a filler material comprising at least one liquid or pasty monomer into the interior space ; polymerizing the monomer to form a polymer , characterized in that the printing material is brought together by means of a first 3D printhead to form the printing structure and the filler material is introduced alternately by means of two second 3D printheads containing two components of the filler material . manufacturing a printing structure , which defines an interior space , from a printing material by means of 3D printing; introducing a filler material comprising at least one liquid or pasty monomer into the interior space ; polymerizing the monomer to form a polymer , characterized in that the printing material is brought together by means of a first 3D printhead to form the printing structure and the filler material is introduced alternately by means of two second 3D printheads containing two components of the filler material .
- A vehicle intended to be towed by a truck for transporting a wind turbine blade comprising a rear portion and a front portion , the front portion configured to be firmly attached to a front rotatory table able to rotate freely on longitudinal axis and vertical axis thereof and operatively mounted on the truck and the rear portion configured to be firmly attached to a rear rotatory table operatively mounted on the vehicle , wherein the vehicle further comprises: - a main frame comprising at least two semi-axles , each semi-axle comprising at least two wheels, a suspension system , a steering system and a traction system , - a lifting system comprising a lift actuator intended to lift the rear rotatory table with the rear portion of the blade securely mounted thereof, wherein said rear rotatory table comprises an actuator able to transmit steering to the semi-axles proportionally to the front rotatory table rotation and further comprising a tilting system configured to tilt the blade on longitudinal axis thereof, - a power system and a control system able to manually and remotely control any one of the steering systems , the traction system , the lifting system or the suspension system ; characterized in that the vehicle further comprises a sliding system comprising a structure intended to be securely attached to the rear portion of the blade and sliding guides configured to slide through the rear rotatory table allowing to vary overhang of the blade . - a main frame comprising at least two semi-axles , each semi-axle comprising at least two wheels, a suspension system , a steering system and a traction system , - a lifting system comprising a lift actuator intended to lift the rear rotatory table with the rear portion of the blade securely mounted thereof, wherein said rear rotatory table comprises an actuator able to transmit steering to the semi-axles proportionally to the front rotatory table rotation and further comprising a tilting system configured to tilt the blade on longitudinal axis thereof, - a power system and a control system able to manually and remotely control any one of the steering systems , the traction system , the lifting system or the suspension system ; characterized in that the vehicle further comprises a sliding system comprising a structure intended to be securely attached to the rear portion of the blade and sliding guides configured to slide through the rear rotatory table allowing to vary overhang of the blade .
A watercraft having a first shaped charge , wherein a second shaped charge is arranged behind the first shaped charge in the effective direction of the first shaped charge , wherein the effective direction of the first shaped charge and the effective direction of the second shaped charge run to a common target point, characterized in that at least one of the two shaped charges is arranged to be movable, wherein the watercraft has a distance sensor and an electronic evaluation and control system, wherein the distance sensor is designed to detect the distance between the watercraft and an object arranged in front of the watercraft, wherein the electronic evaluation and control system is designed to process the distance detected by the distance sensor, wherein the electronic evaluation and control system is designed to move at least one of the two shaped charges , depending on the distance detected.
A detector system , comprising: a flow cell including an optically transparent first wall and an optically transparent second wall, the optically transparent second wall positioned opposite the optically transparent first wall; a plurality of light sources integrated within the flow cell, the plurality of light sources configured to emit light to travel through the optically transparent first wall; and a detection chamber integrated with the flow cell and configured to capture light passing out from the flow cell through the optically transparent second wall into the detection chamber, wherein each of the plurality of light sources is adjacent to a corresponding reference photodiode integrated within the flow cell, the reference photodiode configured to detect light emitted by the adjacent light source. a flow cell including an optically transparent first wall and an optically transparent second wall, the optically transparent second wall positioned opposite the optically transparent first wall; a plurality of light sources integrated within the flow cell, the plurality of light sources configured to emit light to travel through the optically transparent first wall; and a detection chamber integrated with the flow cell and configured to capture light passing out from the flow cell through the optically transparent second wall into the detection chamber, wherein each of the plurality of light sources is adjacent to a corresponding reference photodiode integrated within the flow cell, the reference photodiode configured to detect light emitted by the adjacent light source.
A surgical instrument comprising a switch base assembly and a housing , the switch base assembly comprising: a switch base having a top surface , a bottom surface , and side surfaces ; a power bus coupled to the switch base; and a membrane disposed over at least the top surface of the switch base and over the power bus sealing the top surface of the switch base; and the housing defining a proximal opening , a distal opening (3 8), an actuator opening , and a switch base cavity , the housing including an upper portion and a lower portion , the switch base cavity including an upper portion and a lower portion , wherein the actuator opening of the housing is in communication with the upper portion of the switch base cavity , characterized in that the housing includes a plurality of bulkheads positioned adjacent to the proximal opening and the distal opening , the said plurality of bulkheads forming a plurality of fluid impermeable seals to prevent fluid that enters the housing through the proximal opening or through the distal opening from penetrating the switch base cavity ; and the housing further comprising proximal and distal upper bulkheads extending from the upper housing portion , each of the upper bulkheads engaging the membrane to form a fluid impermeable seal to prevent fluid that enters the upper portion of the switch base cavity through the actuator opening from penetrating the lower portion of the switch base cavity and contacting switch contacts or other electrical connections of the switch base assembly. a switch base having a top surface , a bottom surface , and side surfaces ; a power bus coupled to the switch base; and a membrane disposed over at least the top surface of the switch base and over the power bus sealing the top surface of the switch base; and the housing defining a proximal opening , a distal opening (3 8), an actuator opening , and a switch base cavity , the housing including an upper portion and a lower portion , the switch base cavity including an upper portion and a lower portion , wherein the actuator opening of the housing is in communication with the upper portion of the switch base cavity , characterized in that the housing includes a plurality of bulkheads positioned adjacent to the proximal opening and the distal opening , the said plurality of bulkheads forming a plurality of fluid impermeable seals to prevent fluid that enters the housing through the proximal opening or through the distal opening from penetrating the switch base cavity ; and the housing further comprising proximal and distal upper bulkheads extending from the upper housing portion , each of the upper bulkheads engaging the membrane to form a fluid impermeable seal to prevent fluid that enters the upper portion of the switch base cavity through the actuator opening from penetrating the lower portion of the switch base cavity and contacting switch contacts or other electrical connections of the switch base assembly.
A method for controlling an inverter for controlling a motor , comprising: detecting an output current from the inverter ; determining a software over-current suppression, S/W OCS, level according to an output frequency of the output current; and attenuating the output frequency of the inverter to reduce a slip frequency of the motor if the output current of the inverter is greater than the S/W OCS level, characterized in that the determining of the S/W OCS level includes controlling the S/W OCS level according to three sections of the output frequency, wherein the three sections include a low frequency section, an intermediate frequency section, and a high frequency section, and wherein the S/W OCS level is kept constant in the low frequency section and the high frequency section, and the S/W OCS level is set to linearly decrease as the output frequency increases in the intermediate frequency section. detecting an output current from the inverter ; determining a software over-current suppression, S/W OCS, level according to an output frequency of the output current; and attenuating the output frequency of the inverter to reduce a slip frequency of the motor if the output current of the inverter is greater than the S/W OCS level, characterized in that the determining of the S/W OCS level includes controlling the S/W OCS level according to three sections of the output frequency, wherein the three sections include a low frequency section, an intermediate frequency section, and a high frequency section, and wherein the S/W OCS level is kept constant in the low frequency section and the high frequency section, and the S/W OCS level is set to linearly decrease as the output frequency increases in the intermediate frequency section.
A method for encoding video comprising: creating a first list comprising motion vectors of one or more neighboring blocks of a current block in a current frame , wherein the one or more neighboring blocks include an above block of the current block, a left block of the current block, and an above left block of the current block; creating a second list comprising a motion vector of a block in a previously transmitted frame , wherein the block in the previously transmitted frame is determined by: deriving coordinates of a position of the block in the previously transmitted frame by performing a flooring function, wherein the flooring function operates an arithmetic right shift operation on a pixel position in the current frame based on a top-left position of the current block followed by an arithmetic left shift operation, and wherein a magnitude of the arithmetic right shift operation and a magnitude of the arithmetic left shift operation each have a value of 4; generating a third list of motion vectors including the first list and the second list; selecting a motion vector in the third list as a motion vector predictor for the current block; setting a control parameter indicating a location of the selected motion vector in the third list; and encoding the control parameter into a bitstream, wherein the current block is a 4 × 4 block. creating a first list comprising motion vectors of one or more neighboring blocks of a current block in a current frame , wherein the one or more neighboring blocks include an above block of the current block, a left block of the current block, and an above left block of the current block; creating a second list comprising a motion vector of a block in a previously transmitted frame , wherein the block in the previously transmitted frame is determined by: deriving coordinates of a position of the block in the previously transmitted frame by performing a flooring function, wherein the flooring function operates an arithmetic right shift operation on a pixel position in the current frame based on a top-left position of the current block followed by an arithmetic left shift operation, and wherein a magnitude of the arithmetic right shift operation and a magnitude of the arithmetic left shift operation each have a value of 4; deriving coordinates of a position of the block in the previously transmitted frame by performing a flooring function, wherein the flooring function operates an arithmetic right shift operation on a pixel position in the current frame based on a top-left position of the current block followed by an arithmetic left shift operation, and wherein a magnitude of the arithmetic right shift operation and a magnitude of the arithmetic left shift operation each have a value of 4; generating a third list of motion vectors including the first list and the second list; selecting a motion vector in the third list as a motion vector predictor for the current block; setting a control parameter indicating a location of the selected motion vector in the third list; and encoding the control parameter into a bitstream, wherein the current block is a 4 × 4 block.
A planting depth control system configured to control a planting depth of a row unit on a planting machine , the planting depth control system comprising: an estimation logic component configured to receive a target depth signal indicative of a target planting depth and a current depth signal indicative of a current planting depth and to generate an estimation output indicative of an estimated force to be exerted by a planting depth actuator assembly to change a relative position of a gauge wheel and a trench opener on the row unit to obtain the target planting depth; and a control signal generator logic component configured to receive the estimation output and to generate a planting depth actuator control signal to control the planting depth actuator assembly based on the estimation output; wherein the gauge wheel is movably coupled to the row unit by a gauge wheel arm; wherein the control signal generator logic component is configured to control the planting depth actuator assembly to exert a force on the gauge wheel arm based on the estimated force; wherein the row unit comprises a downforce actuator configured to apply a downforce on the row unit; and wherein the control signal generator logic component comprises a downforce control signal generator configured to control the downforce actuator to temporarily remove the downforce from the row unit while the planting depth adjustment is being made. an estimation logic component configured to receive a target depth signal indicative of a target planting depth and a current depth signal indicative of a current planting depth and to generate an estimation output indicative of an estimated force to be exerted by a planting depth actuator assembly to change a relative position of a gauge wheel and a trench opener on the row unit to obtain the target planting depth; and a control signal generator logic component configured to receive the estimation output and to generate a planting depth actuator control signal to control the planting depth actuator assembly based on the estimation output; wherein the gauge wheel is movably coupled to the row unit by a gauge wheel arm; wherein the control signal generator logic component is configured to control the planting depth actuator assembly to exert a force on the gauge wheel arm based on the estimated force; wherein the row unit comprises a downforce actuator configured to apply a downforce on the row unit; and wherein the control signal generator logic component comprises a downforce control signal generator configured to control the downforce actuator to temporarily remove the downforce from the row unit while the planting depth adjustment is being made.