mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a bundle-type carbon nanotube having a bulk density of 25 to 45 kg/m 3 , and satisfying the following Equations 1 and 2: 1.0 ≤ x / y ≤ 3.0 1.3 ≤ z / x ≤ 2.0 wherein x is a number representing a bulk density (units: kg/m 3 ) of the bundle-type carbon nanotube, y is a number representing a production yield of the bundle-type carbon nanotube, ranging from 10 to 40, and z is a number representing a tap density (units: kg/m 3 ) of the bundle-type carbon nanotube, wherein the bulk density is measured according to ASTM B329, and the tap density is measured according to ASTM B527-06 said method comprising: preparing a mixture comprising an organic acid and a vanadium-based compound in a molar ratio of 1:(1 to 30); preparing a catalyst precursor comprising the mixture and a cobalt-based compound; performing first thermal treatment of aluminum hydroxide to prepare a support; supporting the catalyst precursor in the support and performing second thermal treatment under an internal pressure of 0.1 to 2 bar to prepare a supported catalyst; and reacting the supported catalyst with a carbon-based compound, the pressure being an internal pressure of the second thermal treatment container, additionally applied with atmospheric pressure. wherein x is a number representing a bulk density (units: kg/m 3 ) of the bundle-type carbon nanotube, y is a number representing a production yield of the bundle-type carbon nanotube, ranging from 10 to 40, and z is a number representing a tap density (units: kg/m 3 ) of the bundle-type carbon nanotube, wherein the bulk density is measured according to ASTM B329, and the tap density is measured according to ASTM B527-06 said method comprising: preparing a mixture comprising an organic acid and a vanadium-based compound in a molar ratio of 1:(1 to 30); preparing a catalyst precursor comprising the mixture and a cobalt-based compound; performing first thermal treatment of aluminum hydroxide to prepare a support; supporting the catalyst precursor in the support and performing second thermal treatment under an internal pressure of 0.1 to 2 bar to prepare a supported catalyst; and reacting the supported catalyst with a carbon-based compound, preparing a mixture comprising an organic acid and a vanadium-based compound in a molar ratio of 1:(1 to 30); preparing a catalyst precursor comprising the mixture and a cobalt-based compound; performing first thermal treatment of aluminum hydroxide to prepare a support; supporting the catalyst precursor in the support and performing second thermal treatment under an internal pressure of 0.1 to 2 bar to prepare a supported catalyst; and reacting the supported catalyst with a carbon-based compound, the pressure being an internal pressure of the second thermal treatment container, additionally applied with atmospheric pressure.
Sensor device with a combined sensor , which is configured and designed to simultaneously detect a mechanical force F ext exerted on the sensor by an object OBJ made of a material MAT, a position POS Fext of the application of force F ext on the sensor and an electrical capacitive coupling C SEN-OBJ of the sensor with the object OBJ made of the material MAT, comprising: - a database , by means of which, for a number N of predefined materials MAT n , relationships Z n of the capacitive coupling C SEN-OBJ-MATn of the sensor with an object OBJ made of a material MAT n are provided depending on a mechanical force Fe xt,OBJ the object OBJ exerts on the sensor , where n = 1, 2, ..., N and N ≥ 1, - a detection unit , by means of which the current measured values: F ext (t), POS Fext (t) and C SEN-OBJ (t) are determined from sensor data of the sensor ; - an evaluation unit , by means of which the material MAT* of the object OBJ which exerts the force F ext (t) on the sensor is identified on the basis of the relationships Z n , where MAT* ∈ MAT n , and - an output unit , by means of which the material MAT* that is identified is output. - a database , by means of which, for a number N of predefined materials MAT n , relationships Z n of the capacitive coupling C SEN-OBJ-MATn of the sensor with an object OBJ made of a material MAT n are provided depending on a mechanical force Fe xt,OBJ the object OBJ exerts on the sensor , where n = 1, 2, ..., N and N ≥ 1, - a detection unit , by means of which the current measured values: F ext (t), POS Fext (t) and C SEN-OBJ (t) are determined from sensor data of the sensor ; - an evaluation unit , by means of which the material MAT* of the object OBJ which exerts the force F ext (t) on the sensor is identified on the basis of the relationships Z n , where MAT* ∈ MAT n , and - an output unit , by means of which the material MAT* that is identified is output.
A perfluoropolyether-based rubber composition comprising: (a) a linear perfluoropolyether compound containing at least two azide groups per molecule and a divalent perfluoroalkyl ether structure in its main chain, and having a number average molecular weight of 1,000 to 100,000 as measured by gel permeation chromatography (GPC) versus polystyrene standards using a fluorochemical solvent as eluent, and (b) a linear perfluoropolyether compound containing at least three ethynyl groups per molecule. (a) a linear perfluoropolyether compound containing at least two azide groups per molecule and a divalent perfluoroalkyl ether structure in its main chain, and having a number average molecular weight of 1,000 to 100,000 as measured by gel permeation chromatography (GPC) versus polystyrene standards using a fluorochemical solvent as eluent, and (b) a linear perfluoropolyether compound containing at least three ethynyl groups per molecule.
A method of conveying articles on a robotic material handling system , the method comprising: receiving one or more articles on a front portion of a conveyor system of the robotic material handling system , wherein at least a portion of the front portion is configured to expand to a first configuration and retract to a second configuration; activating at least one of a plurality of zones (A, B, C, D, E) on the front portion to convey the one or more articles in a first direction towards a rearward conveyor ; the method being characterized by : detecting one or more jammed articles on the front portion ; in response to detecting the one or more jammed articles , expanding the front portion to the first configuration; and dislodging the one or more jammed articles by causing one or more of: separating the one or more jammed articles by activating one or more of the plurality of zones (A, B, C, D, E) under the one or more jammed articles , or activating one or more of the plurality of zones (A, B, C, D, E) under the one or more jammed articles in a second direction opposite to the first direction. receiving one or more articles on a front portion of a conveyor system of the robotic material handling system , wherein at least a portion of the front portion is configured to expand to a first configuration and retract to a second configuration; activating at least one of a plurality of zones (A, B, C, D, E) on the front portion to convey the one or more articles in a first direction towards a rearward conveyor ; the method being characterized by : detecting one or more jammed articles on the front portion ; in response to detecting the one or more jammed articles , expanding the front portion to the first configuration; and dislodging the one or more jammed articles by causing one or more of: separating the one or more jammed articles by activating one or more of the plurality of zones (A, B, C, D, E) under the one or more jammed articles , or activating one or more of the plurality of zones (A, B, C, D, E) under the one or more jammed articles in a second direction opposite to the first direction. detecting one or more jammed articles on the front portion ; in response to detecting the one or more jammed articles , expanding the front portion to the first configuration; and dislodging the one or more jammed articles by causing one or more of: separating the one or more jammed articles by activating one or more of the plurality of zones (A, B, C, D, E) under the one or more jammed articles , or activating one or more of the plurality of zones (A, B, C, D, E) under the one or more jammed articles in a second direction opposite to the first direction. separating the one or more jammed articles by activating one or more of the plurality of zones (A, B, C, D, E) under the one or more jammed articles , or activating one or more of the plurality of zones (A, B, C, D, E) under the one or more jammed articles in a second direction opposite to the first direction.
A method of conditioning zirconium oxide, comprising the steps of: pumping a conditioning solution through a zirconium oxide sorbent module in a flow path ; and conditioning the zirconium oxide sorbent module using the conditioning solution comprising sodium bicarbonate at a desired zirconium oxide effluent pH, further comprising the step of pumping a base solution through the zirconium oxide sorbent module to recharge zirconium oxide in the zirconium oxide sorbent module prior to conditioning the zirconium oxide sorbent module. pumping a conditioning solution through a zirconium oxide sorbent module in a flow path ; and conditioning the zirconium oxide sorbent module using the conditioning solution comprising sodium bicarbonate at a desired zirconium oxide effluent pH, further comprising the step of pumping a base solution through the zirconium oxide sorbent module to recharge zirconium oxide in the zirconium oxide sorbent module prior to conditioning the zirconium oxide sorbent module.
Method for digital printing of images (P) on physical supports (S), the method comprising the following steps: i) generating a digital image (D1) with a predetermined format; ii) converting the digital image (D1) into an image (D2) with a format suitable for printing on a physical support (S); iii) printing the converted image (D2) on the physical support (S) in order to obtain the physical support (S) with the printed image (P); wherein at least said step i) is performed by means of a process for the processing, by at least one artificial intelligence software algorithm , of a series of inputs (T 1 , T 2 , T n ...) comprising images and/or texts and/or keywords, the digital image (D1) representing the output of the processing process in said step i); and in that said step ii) is performed by means of a dedicated software with the aid of an additional artificial intelligence software algorithm , said additional artificial intelligence software algorithm performing an additional processing process in order to vary the printing parameters of the converted format of said digital image (D1); and in that the inputs (T3, T4, Tn...) for said additional processing process comprise the pixel density, namely the resolution, of the digital image (D1), the dimensions of the printed image (P), the material of the physical support (S), the surface roughness of the physical support (S) and the intrinsic characteristics of the surface of the physical support (S), the output consisting of a converted image (D2) so that the printed image (P) has a predetermined resolution. i) generating a digital image (D1) with a predetermined format; ii) converting the digital image (D1) into an image (D2) with a format suitable for printing on a physical support (S); iii) printing the converted image (D2) on the physical support (S) in order to obtain the physical support (S) with the printed image (P); wherein at least said step i) is performed by means of a process for the processing, by at least one artificial intelligence software algorithm , of a series of inputs (T 1 , T 2 , T n ...) comprising images and/or texts and/or keywords, the digital image (D1) representing the output of the processing process in said step i); and in that said step ii) is performed by means of a dedicated software with the aid of an additional artificial intelligence software algorithm , said additional artificial intelligence software algorithm performing an additional processing process in order to vary the printing parameters of the converted format of said digital image (D1); and in that the inputs (T3, T4, Tn...) for said additional processing process comprise the pixel density, namely the resolution, of the digital image (D1), the dimensions of the printed image (P), the material of the physical support (S), the surface roughness of the physical support (S) and the intrinsic characteristics of the surface of the physical support (S), the output consisting of a converted image (D2) so that the printed image (P) has a predetermined resolution.
A base station for transmitting downlink control information, the base station being configured to: receive feedback information including at least one precoding matrix index, PMI, from an user equipment via a physical uplink shared channel, PUSCH, and a physical uplink control channel, PUCCH, piggy-backed to the PUSCH; apply precoding to a downlink signal; transmit precoding information having a predetermined number of bits, wherein the predetermined number of bits is defined according to a number of antenna ports and a transmission mode of the base station; and transmit the precoded downlink signal, wherein the precoding information of a specific transmission mode includes confirmation information, wherein the confirmation information indicates that the precoding applied to the downlink signal for a specific resource block, RB, in nth subframe is according to a latest PMI received from the user equipment on or before n-xth subframe, wherein "x" is a predetermined integer, and wherein the confirmation information is used only for the PMI received via the PUSCH and is not used for the PMI received via the PUCCH piggy-backed to the PUSCH. receive feedback information including at least one precoding matrix index, PMI, from an user equipment via a physical uplink shared channel, PUSCH, and a physical uplink control channel, PUCCH, piggy-backed to the PUSCH; apply precoding to a downlink signal; transmit precoding information having a predetermined number of bits, wherein the predetermined number of bits is defined according to a number of antenna ports and a transmission mode of the base station; and transmit the precoded downlink signal, wherein the precoding information of a specific transmission mode includes confirmation information, wherein the confirmation information indicates that the precoding applied to the downlink signal for a specific resource block, RB, in nth subframe is according to a latest PMI received from the user equipment on or before n-xth subframe, wherein "x" is a predetermined integer, and wherein the confirmation information is used only for the PMI received via the PUSCH and is not used for the PMI received via the PUCCH piggy-backed to the PUSCH.
A thermostat comprising a main body and a cover , the main body comprising a display screen , a control button , and a battery compartment for housing a battery to power the thermostat, wherein the cover is moveable between an open configuration in which the battery compartment and control button are accessible, and a closed configuration in which the cover shields the battery compartment and control button, characterized in that the thermostat further comprises: a finger protruding from one of the cover or main body; a slot in the other of the cover or main body, for receiving the finger when the cover is in the closed configuration; a first bore extending through the cover or main body, and a second bore extending through the finger, the first and second bores being aligned when the cover is in the closed configuration; and a fastener receivable in the first bore, for inserting into the second bore when the cover is in the closed configuration, thereby preventing removal of the finger from the slot such that the cover is locked in the closed configuration, wherein the finger, the slot, the first bore, the second bore and the fastener form a locking arrangement for locking the cover in the closed configuration. a finger protruding from one of the cover or main body; a slot in the other of the cover or main body, for receiving the finger when the cover is in the closed configuration; a first bore extending through the cover or main body, and a second bore extending through the finger, the first and second bores being aligned when the cover is in the closed configuration; and a fastener receivable in the first bore, for inserting into the second bore when the cover is in the closed configuration, thereby preventing removal of the finger from the slot such that the cover is locked in the closed configuration, wherein the finger, the slot, the first bore, the second bore and the fastener form a locking arrangement for locking the cover in the closed configuration.
A scale for a crop collection device which comprises: - a tray ; - and a plate for fixing the scale to a support of the crop collection device, characterised in that the fixing plate comprises a clamping surface which comprises a central through recess which opens longitudinally at its two ends and which is able to receive a longitudinal section of an inflatable flexible envelope interposed vertically between the clamping surface and a facing portion of the support . - a tray ; - and a plate for fixing the scale to a support of the crop collection device,
A device for supporting a power transfer to an electromagnetic load from a power transmitter comprising a power transfer coil providing a power transfer electromagnetic signal when in a power transfer mode; the device having a first surface area and a second surface area and comprising: a resonance circuit including an inductor and a capacitor , the inductor being arranged to couple to the power transmitter through the first surface area and to couple to the electromagnetic load through the second surface area ; the resonance circuit being arranged to concentrate energy of the power transfer electromagnetic signal from the first surface area towards the second surface area characterised by further comprising a communicator for exchanging messages with the power transmitter , the communicator being arranged to transmit a request message to the power transmitter comprising a request for the power transmitter to generate a measurement electromagnetic signal; a load indication processor for determining a load indication indicative of a loading of the measurement electromagnetic signal; a detector for detecting a presence of the electromagnetic load in response to the load indication; and a controller for adapting an operation of the wireless power transfer system in response to the detection of the presence of the electromagnetic load. a resonance circuit including an inductor and a capacitor , the inductor being arranged to couple to the power transmitter through the first surface area and to couple to the electromagnetic load through the second surface area ; the resonance circuit being arranged to concentrate energy of the power transfer electromagnetic signal from the first surface area towards the second surface area characterised by further comprising a communicator for exchanging messages with the power transmitter , the communicator being arranged to transmit a request message to the power transmitter comprising a request for the power transmitter to generate a measurement electromagnetic signal; a load indication processor for determining a load indication indicative of a loading of the measurement electromagnetic signal; a detector for detecting a presence of the electromagnetic load in response to the load indication; and a controller for adapting an operation of the wireless power transfer system in response to the detection of the presence of the electromagnetic load.
Protective helmet , in particular for motorcyclists , - having a helmet shell , which forms a head-receiving region and has an opening , which is directed towards a shoulder region of a helmet wearer ; - having a protective unit (8; 10), which is arranged within the head-receiving region , which is directly adjacent to the helmet shell and on which at least one first fastening element is arranged; - having a padding unit (9; 11), which is arranged within the head-receiving region , which butts directly against the head of the helmet wearer and on which at least one second fastening element is arranged, it being possible for the at least one second fastening element to be releasably connected to the corresponding first fastening element ; and, in order for the two fastening elements to be connected to one another, these are to be oriented on one another and/or in relation to one another such that the first fastening element and the second fastening element can be moved relatively towards one another, along a common plug-in-connection direction , until the two fastening elements come into engagement with one another, a plug-in connection being established as a result, and - having a removal unit , via which the first fastening element and the second fastening element can be released from one another; characterized in that the first fastening element and the second fastening element and, as a result, the protective unit (8; 10) and the padding unit (9; 11) can be released from one another, by means of the removal unit , along a release direction , which is oriented transversely in relation to the plug-in-connection direction . - having a helmet shell , which forms a head-receiving region and has an opening , which is directed towards a shoulder region of a helmet wearer ; - having a protective unit (8; 10), which is arranged within the head-receiving region , which is directly adjacent to the helmet shell and on which at least one first fastening element is arranged; - having a padding unit (9; 11), which is arranged within the head-receiving region , which butts directly against the head of the helmet wearer and on which at least one second fastening element is arranged, it being possible for the at least one second fastening element to be releasably connected to the corresponding first fastening element ; and, in order for the two fastening elements to be connected to one another, these are to be oriented on one another and/or in relation to one another such that the first fastening element and the second fastening element can be moved relatively towards one another, along a common plug-in-connection direction , until the two fastening elements come into engagement with one another, a plug-in connection being established as a result, and - having a removal unit , via which the first fastening element and the second fastening element can be released from one another;
A gas cooking appliance comprising - a control panel , - a gas regulating valve comprising a valve body and an operating shaft going through the control panel , - a control knob comprising a handle coupled to the operating shaft of the valve , and - a bracket comprising a base secured to the valve body and at least two arms extending from the base , wherein - the arms of the bracket are secured to the control panel , characterized in that - the control panel comprises one housing for each arm of the bracket , each housing having a shape complementary to at least one part of the end of the corresponding arm , said at least one part of each end being fitted in the respective housing . - a control panel , - a gas regulating valve comprising a valve body and an operating shaft going through the control panel , - a control knob comprising a handle coupled to the operating shaft of the valve , and - a bracket comprising a base secured to the valve body and at least two arms extending from the base , wherein - the arms of the bracket are secured to the control panel , - the control panel comprises one housing for each arm of the bracket , each housing having a shape complementary to at least one part of the end of the corresponding arm , said at least one part of each end being fitted in the respective housing .