mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry treatment apparatus comprising: a washing tub configured to receive laundry, the washing tub being configured to be rotatable; a motor configured to rotate the washing tub ; a controller configured to control the motor such that the washing tub is accelerated to a predetermined target speed at an acceleration gradient of 1.5 to 2.5 rpm/s within a range in which the laundry moves relative to the washing tub; and a current sensing unit configured to sense current of the motor, wherein the controller is configured to obtain data corresponding to at least one of laundry weight or laundry quality from output of an output layer of an artificial neural network pre-trained based on machine learning, using data relating to at least one current value or an average value of multiple current values sensed by the current sensing unit while accelerating the washing tub as input to an input layer of the artificial neural network. a washing tub configured to receive laundry, the washing tub being configured to be rotatable; a motor configured to rotate the washing tub ; a controller configured to control the motor such that the washing tub is accelerated to a predetermined target speed at an acceleration gradient of 1.5 to 2.5 rpm/s within a range in which the laundry moves relative to the washing tub; and a current sensing unit configured to sense current of the motor, wherein the controller is configured to obtain data corresponding to at least one of laundry weight or laundry quality from output of an output layer of an artificial neural network pre-trained based on machine learning, using data relating to at least one current value or an average value of multiple current values sensed by the current sensing unit while accelerating the washing tub as input to an input layer of the artificial neural network.
Inductive charging arrangement for motor vehicles having a first induction apparatus , which is arranged in particular in a stationary manner, and a second induction apparatus , which can be mounted on the motor vehicle, wherein the first induction apparatus comprises a first coil device and the second induction apparatus comprises a second coil device and the first coil device and the second coil device are suitable and intended for inductive energy transmission, and wherein the second induction apparatus comprises a control device which is suitable and intended for influencing the currents flowing between the second coil device and a load and/or for enabling a predetermined current flow, wherein the control device comprises an electric rectifier unit and an electric voltage multiplier unit , characterized by a switching device enabling switching between the rectifier unit and the voltage multiplier unit , wherein the switching device is operated at a frequency higher than 10 kHz and lower than 200 kHz, and wherein the charging arrangement comprises a switching control device which is suitable and intended to control a switching state of the switching device and the switching control device is suitable and intended to synchronize switching times of the switching device to a working frequency of a coil current of the second coil device . wherein the first induction apparatus comprises a first coil device and the second induction apparatus comprises a second coil device and the first coil device and the second coil device are suitable and intended for inductive energy transmission, and wherein the second induction apparatus comprises a control device which is suitable and intended for influencing the currents flowing between the second coil device and a load and/or for enabling a predetermined current flow, wherein the control device comprises an electric rectifier unit and an electric voltage multiplier unit , characterized by a switching device enabling switching between the rectifier unit and the voltage multiplier unit , wherein the switching device is operated at a frequency higher than 10 kHz and lower than 200 kHz, and wherein the charging arrangement comprises a switching control device which is suitable and intended to control a switching state of the switching device and the switching control device is suitable and intended to synchronize switching times of the switching device to a working frequency of a coil current of the second coil device .
A system for controlling a vehicle display based on occupant's gaze, comprising: a first occupant gaze recognition unit configured to recognize a gaze of a first occupant in a vehicle; a second occupant gaze recognition unit configured to recognize a gaze of a second occupant in the vehicle; a unit configured to determine interest information from the gaze of the first occupant and the gaze of the second occupant, and a display control unit configured to control the display, characterized in that the unit is further configured to determine whether areas for displaying the interest information on a windshield mutually crossover with each other, and to determine a priority of a display; and the display control unit configured to control the display in accordance with the priority of the display. a first occupant gaze recognition unit configured to recognize a gaze of a first occupant in a vehicle; a second occupant gaze recognition unit configured to recognize a gaze of a second occupant in the vehicle; a unit configured to determine interest information from the gaze of the first occupant and the gaze of the second occupant, and a display control unit configured to control the display, characterized in that the unit is further configured a display control unit configured to control the display, characterized in that the unit is further configured to determine whether areas for displaying the interest information on a windshield mutually crossover with each other, and to determine a priority of a display; and the display control unit configured to control the display in accordance with the priority of the display.
A supercapacitor assembly comprising: • a supercapacitor comprising carbon-containing anode(s) and cathode(s), intermediate porous membrane(s) and an ionic liquid electrolyte, wherein the ionic liquid electrolyte comprises a quaternary ammonium cation or an alkyl or substituted-alkyl pyridinium, pyridazinium, pyrimidinium, pyrazinium, imidazolium, piperidinium, pyrrolidinium, pyrazolium, thiazolium, oxazolium, triazolium or azepanium cation; • an electrical heater for heating the supercapacitor, wherein (i) the electrical heater is dispersed around the outer surfaces of the supercapacitor, ii) the supercapacitor comprises a pouch and the electrical heater comprises a thin film heater disposed within the pouch, optionally wherein the internal surfaces of the pouch are coated with a heat reflective layer, or (iii) the heater comprises a heat-sink configured to draw heat from other electrical components in a device in which the supercapacitor is used; and • a thermostat for controlling the heater and maintaining the temperature of the ionic liquid at a temperature such that its viscosity is in the range of 0.001 to 0.05 N.s/m 2 (1 to 50 centipoise). • a supercapacitor comprising carbon-containing anode(s) and cathode(s), intermediate porous membrane(s) and an ionic liquid electrolyte, wherein the ionic liquid electrolyte comprises a quaternary ammonium cation or an alkyl or substituted-alkyl pyridinium, pyridazinium, pyrimidinium, pyrazinium, imidazolium, piperidinium, pyrrolidinium, pyrazolium, thiazolium, oxazolium, triazolium or azepanium cation; • an electrical heater for heating the supercapacitor, wherein (i) the electrical heater is dispersed around the outer surfaces of the supercapacitor, ii) the supercapacitor comprises a pouch and the electrical heater comprises a thin film heater disposed within the pouch, optionally wherein the internal surfaces of the pouch are coated with a heat reflective layer, or (iii) the heater comprises a heat-sink configured to draw heat from other electrical components in a device in which the supercapacitor is used; and • a thermostat for controlling the heater and maintaining the temperature of the ionic liquid at a temperature such that its viscosity is in the range of 0.001 to 0.05 N.s/m 2 (1 to 50 centipoise).
A projection system , comprising: a first light source operative to emit a first illumination beam: a second light source operative to emit a second illumination beam; a first spatial light modulator, SLM, disposed to receive light from said first light source and being operative to modulate said light from said first light source based on image data to generate an imaging beam; a beam steering device disposed to receive at least a portion of said second illumination beam and being operative to steer said at least a portion of said second illumination beam to highlight regions of said first SLM based on highlight data such that said first SLM also modulates light from said second light source according to said image data to impart highlights in said imaging beam; a second SLM disposed to receive light from said second light source and operative to modulate said light from said second light source based on said image data to generate a second imaging beam; and a redirector disposed to receive said second illumination beam and selectively redirect at least some of said second illumination beam to said beam steering device prior to light from said second light source reaching said second SLM . a second light source operative to emit a second illumination beam; a first spatial light modulator, SLM, disposed to receive light from said first light source and being operative to modulate said light from said first light source based on image data to generate an imaging beam; a beam steering device disposed to receive at least a portion of said second illumination beam and being operative to steer said at least a portion of said second illumination beam to highlight regions of said first SLM based on highlight data such that said first SLM also modulates light from said second light source according to said image data to impart highlights in said imaging beam; a second SLM disposed to receive light from said second light source and operative to modulate said light from said second light source based on said image data to generate a second imaging beam; and a redirector disposed to receive said second illumination beam and selectively redirect at least some of said second illumination beam to said beam steering device prior to light from said second light source reaching said second SLM .
A noise barrier configured to be placed in the path of an airflow for attenuating sound which propagates along this path in the airflow , which noise barrier has one or more through holes to enable said airflow to pass through the noise barrier , the noise barrier having one side configured to be hit by the air of said airflow over a surface section which has a predetermined surface area in an orthogonal projection on a plane (γ) fitted to said surface section , wherein said noise barrier has an airflow resistivity, measured in accordance with ISO 9053-1:2018, Part 1, which is higher than 50 000 Ns/m 4 , and said one or more through holes have each a centreline and a smallest cross-sectional area, measured in a plane (α) perpendicular to its centreline , the sum of said smallest cross-sectional areas being larger than 10% of said predetermined surface area, characterised in that ; said noise barrier is made of at least one sound attenuating polymeric foam.
A milk sampling device comprising a housing forming an inner space, an inlet opening to the inner space, a deflector member provided with an upper surface mounted in the inner space of the housing in a position below the inlet opening where it is configured to receive and temporarily accumulate milk entering the housing through the inlet opening , a flow passage formed between a periphery edge portion of the deflector member and an inner surface of the housing , and a milk sampling passage provided with at least one opening which constitutes a part of the flow passage , characterized in that the upper surface of the deflector member comprises a plurality of upwardly extending members arranged at a distance from each other in the vicinity of the periphery edge portion of the deflector member such that flow channels are formed between adjacent upwardly extending members , wherein the deflector member is arranged in a position in relation to the inlet opening such that a vertical axis extends both through a center position of the inlet opening and a center position of the upper surface of the deflector member .
An injection molding method comprising: injecting a material that solidifies at a first temperature into a cavity (114; 604; 704) of an injection molding tool (102; 602; 702) with a zero or low-draft angle wall; characterised by expanding the cavity (114; 604; 704) of the injection molding tool (102; 602; 702) by heating an outer portion of the injection molding tool (102; 602; 702) above the first temperature to form an air gap between the material and the cavity while cooling an inner portion of the injection molding tool (102; 602; 702) that is between the cavity (114; 604; 704) and the outer portion of the injection molding tool (102; 602; 702) to regulate a surface temperature of the cavity (114; 604; 704) lower than the first temperature; and ejecting, from the cavity (114; 604; 704), a molded part. injecting a material that solidifies at a first temperature into a cavity (114; 604; 704) of an injection molding tool (102; 602; 702) with a zero or low-draft angle wall; characterised by expanding the cavity (114; 604; 704) of the injection molding tool (102; 602; 702) by heating an outer portion of the injection molding tool (102; 602; 702) above the first temperature to form an air gap between the material and the cavity while cooling an inner portion of the injection molding tool (102; 602; 702) that is between the cavity (114; 604; 704) and the outer portion of the injection molding tool (102; 602; 702) to regulate a surface temperature of the cavity (114; 604; 704) lower than the first temperature; and ejecting, from the cavity (114; 604; 704), a molded part.
A data processing method for contactless electronic payment, comprising: generating a first bit sequence in accordance with a first format of a first track of a magnetic stripe card, the first bit sequence encoding first information required by the first format, wherein the first information is required to be verified for transaction approval; generating a second bit sequence based on a second format of a second track of the magnetic stripe card, the second bit sequence omitting at least some second information required by the second format, wherein the second information includes secondary-channel field information; replacing the at least some second information omitted from the second bit sequence with a custom bit sequence ; concatenating the first bit sequence in forward or reverse bit-order with the second bit sequence, including the custom bit sequence , in forward or reverse bit-order to form a third bit sequence; and transmitting the third bit sequence from a contactless payment device as a series of magnetic-field pulses to electronically simulate a swiping of the magnetic stripe card across read heads of a magnetic stripe reader , MSR, wherein the custom bit sequence is selected to tune reading of the third bit sequence to reduce read errors of the first bit sequence transmitted within the third bit sequence by a given point-of-sale (POS) terminal . generating a first bit sequence in accordance with a first format of a first track of a magnetic stripe card, the first bit sequence encoding first information required by the first format, wherein the first information is required to be verified for transaction approval; generating a second bit sequence based on a second format of a second track of the magnetic stripe card, the second bit sequence omitting at least some second information required by the second format, wherein the second information includes secondary-channel field information; replacing the at least some second information omitted from the second bit sequence with a custom bit sequence ; concatenating the first bit sequence in forward or reverse bit-order with the second bit sequence, including the custom bit sequence , in forward or reverse bit-order to form a third bit sequence; and transmitting the third bit sequence from a contactless payment device as a series of magnetic-field pulses to electronically simulate a swiping of the magnetic stripe card across read heads of a magnetic stripe reader , MSR, wherein the custom bit sequence is selected to tune reading of the third bit sequence to reduce read errors of the first bit sequence transmitted within the third bit sequence by a given point-of-sale (POS) terminal .
A carbon brush arrangement for connection to an electric motor, comprising at least one carbon brush connected to a connection means provided with a plastic connection housing via a connection conductor provided with a plastic sheath , characterized in that the plastic sheath consists of a perfluoroalkoxy polymer (PFA) in at least a region of transition to the connection housing and in that the region of transition is formed with another thermoplastic plastic material, which is in particular also made of perfluoroalkoxy polymer (PFA), by extrusion-coating the plastic sheath in order to form the connection housing .
A heart support net comprising, a reception part configured to receive a heart and to be attached to an outer side of a ventricle, the reception part comprising: a first conductive part and a second conductive part each knitted into mesh with a conductive yarn; and a non-conductive part knitted into mesh with a non-conductive yarn, the first conductive part corresponding to a cardiac base side on the outer side of the ventricle, the second conductive part corresponding to a cardiac apex side on the outer side of the ventricle, the non-conductive part disposed between the first conductive part and the second conductive part , and the first conductive part having a height of approximately 25% of a height of the ventricle, the second conductive part having a height of approximately 35% of the height of the ventricle, and the non-conductive part having a height of approximately 40% of the height of the ventricle. a reception part configured to receive a heart and to be attached to an outer side of a ventricle, the reception part comprising: a first conductive part and a second conductive part each knitted into mesh with a conductive yarn; and a non-conductive part knitted into mesh with a non-conductive yarn, a first conductive part and a second conductive part each knitted into mesh with a conductive yarn; and a non-conductive part knitted into mesh with a non-conductive yarn, the first conductive part corresponding to a cardiac base side on the outer side of the ventricle, the second conductive part corresponding to a cardiac apex side on the outer side of the ventricle, the non-conductive part disposed between the first conductive part and the second conductive part , and the first conductive part having a height of approximately 25% of a height of the ventricle, the second conductive part having a height of approximately 35% of the height of the ventricle, and the non-conductive part having a height of approximately 40% of the height of the ventricle.
A stack mold for an injection molding apparatus, wherein the stack mold comprises a central block as well as a first and second outer mold block and at least two holding parts which can be simultaneously arranged at the same side of the central block , wherein the central block and the first and second outer mold blocks are adjustable between a closed position and an open position; wherein the outer mold blocks have outer cavities at their sides each facing the central block and the central block comprises respective inner cavities at its sides facing the outer mold blocks ; wherein the outer cavities cooperate with the inner cavities in the closed position to form mold hollow spaces; wherein at least a part region of the mold hollow spaces is formed by adjustable holding parts which are movable completely around the central block with respect to an axis of rotation (D); and wherein the stack mold comprises at least one lifting apparatus which is configured to move the holding parts away from the central block and/or toward the central block , characterized in that the lifting apparatus is configured to be decoupled from the holding parts during a rotation of the holding parts about the axis of rotation (D). wherein the central block and the first and second outer mold blocks are adjustable between a closed position and an open position; wherein the outer mold blocks have outer cavities at their sides each facing the central block and the central block comprises respective inner cavities at its sides facing the outer mold blocks ; wherein the outer cavities cooperate with the inner cavities in the closed position to form mold hollow spaces; wherein at least a part region of the mold hollow spaces is formed by adjustable holding parts which are movable completely around the central block with respect to an axis of rotation (D); and wherein the stack mold comprises at least one lifting apparatus which is configured to move the holding parts away from the central block and/or toward the central block , characterized in that the lifting apparatus is configured to be decoupled from the holding parts during a rotation of the holding parts about the axis of rotation (D).
A soil-driven rotary hoe , in particular for vine and fruit row cultivation, comprising a support structure configured to be suspended on a power machine or a towed structure and at least one hoe body fixed to the support structure by means of a fixing mechanism , said hoe body having a hoe wheel which is rotatably embedded about a rotation axis (t), the plane of rotation of the hoe wheel is at a first angle (a) of between 5 and 70° with the surface of the soil to be cultivated, and the intersection (m) of the plane of rotation with the plane of the surface of the soil is at a second angle (β) of between 5 and 80° with the direction of advance of the rotary hoe, the hoe wheel has blades projecting from the direction of the rotation axis (t) and inclined backwards with respect to the natural direction of rotation (A) of the hoe wheel , wherein the fixing mechanism comprises a first spring deflection mechanism for forcing the at least one hoe body along a first axis (t 1 ) towards the surface of the soil to be cultivated and the at least one hoe wheel is arranged such that in the maximum deflection position of the first spring deflection mechanism towards the soil to be cultivated, the hoe wheel extends into the soil to a given cultivation depth, and characterized in that the fixing mechanism further comprises a second spring deflection mechanism for forcing the at least one hoe body laterally along a second axis (t 2 ) transversal to the direction of advance (h) of the rotary hoe , and the at least one hoe wheel is further arranged such that in the maximum lateral deflection position of the second spring deflection mechanism , the hoe wheel extends laterally beyond the support structure and the fixing mechanism .