mhurhangee/patent-ind-claim-en huggingface dataset:
A photochromic curable composition comprising: (A) a polyrotaxane monomer wherein, in a polyrotaxane compound having a composite molecular structure composed of an axial molecule and a plurality of cyclic molecules threaded onto the axial molecule, and side chains having OH groups introduced into the cyclic molecules, OH groups in the side chains are modified with a compound having a radical-polymerizable group; (B) a photochromic compound; and (C) a polymerizable monomer other than the (A) polyrotaxane monomer; characterized in that : the ratio of modification with the compound having a radical-polymerizable group is more than 70 mol% to 95 mol% or less, the ratio of modification with a compound not containing a radical-polymerizable group is 0 mol% or more to less than 30 mol%, and the ratio of unmodified OH groups is 0 mol% or more to less than 30 mol%, on the basis of 100 mol% of OH groups in the side chains contained in the polyrotaxane compound; or the ratio of modification with the compound having a radical-polymerizable group is 1 mol% or more to less than 40 mol%, the ratio of modification with a compound not containing a radical-polymerizable group is more than 0 mol% to 65 mol% or less, and the ratio of unmodified OH groups is 0 mol% or more to 60 mol% or less, on the basis of 100 mol% of OH groups in the side chains contained in the polyrotaxane compound. (A) a polyrotaxane monomer wherein, in a polyrotaxane compound having a composite molecular structure composed of an axial molecule and a plurality of cyclic molecules threaded onto the axial molecule, and side chains having OH groups introduced into the cyclic molecules, OH groups in the side chains are modified with a compound having a radical-polymerizable group; (B) a photochromic compound; and (C) a polymerizable monomer other than the (A) polyrotaxane monomer; the ratio of modification with the compound having a radical-polymerizable group is more than 70 mol% to 95 mol% or less, the ratio of modification with a compound not containing a radical-polymerizable group is 0 mol% or more to less than 30 mol%, and the ratio of unmodified OH groups is 0 mol% or more to less than 30 mol%, on the basis of 100 mol% of OH groups in the side chains contained in the polyrotaxane compound; or the ratio of modification with the compound having a radical-polymerizable group is 1 mol% or more to less than 40 mol%, the ratio of modification with a compound not containing a radical-polymerizable group is more than 0 mol% to 65 mol% or less, and the ratio of unmodified OH groups is 0 mol% or more to 60 mol% or less, on the basis of 100 mol% of OH groups in the side chains contained in the polyrotaxane compound.
Method for controlling the defrost of an evaporator in a refrigerator having a cooling circuit with a variable cooling capacity compressor, wherein it comprises the steps of assessing the cooling capacity of the cooling circuit and calculating the defrost time on the basis of such cooling capacity, characterized in that the cooling capacity is assessed on the basis of the inverter frequency driving the compressor and wherein the cooling capacity (CC) is assessed according to the following formula: CC = f freq ∼ A 0 + A 1 ⋅ freq where: freq is the frequency of the inverter driving the compressor. A0 and A 1 are experimental constants. freq is the frequency of the inverter driving the compressor. A0 and A 1 are experimental constants.
A method implemented by one or more processors, the method comprising: causing, by a portable client device, a graphical camera interface to be provided at a touch screen display of the portable client device, wherein the graphical camera interface provides a graphical representation of an environment at which a camera of the portable client device is directed; determining, based on image data provided by the camera when the camera is directed at the environment and based on processing of the image data provided by the camera, that the graphical representation of the environment portrays a controllable electronic device that is located within the environment; determining, in response to determining that the graphical representation of the environment portrays the controllable electronic device, an adjustable setting of the controllable electronic device, wherein the adjustable setting, when modified, alters at least one state of the controllable electronic device; receiving, at the touch screen display of the portable client device, a selection at the graphical camera interface; and causing, in response to receiving the selection at the graphical camera interface, the adjustable setting of the controllable electronic device to be modified. causing, by a portable client device, a graphical camera interface to be provided at a touch screen display of the portable client device, wherein the graphical camera interface provides a graphical representation of an environment at which a camera of the portable client device is directed; determining, based on image data provided by the camera when the camera is directed at the environment and based on processing of the image data provided by the camera, that the graphical representation of the environment portrays a controllable electronic device that is located within the environment; determining, in response to determining that the graphical representation of the environment portrays the controllable electronic device, an adjustable setting of the controllable electronic device, wherein the adjustable setting, when modified, alters at least one state of the controllable electronic device; receiving, at the touch screen display of the portable client device, a selection at the graphical camera interface; and causing, in response to receiving the selection at the graphical camera interface, the adjustable setting of the controllable electronic device to be modified.
Household appliance system with at least one output unit , with at least one functional unit , which in at least one operating state carries out at least one household appliance main function, wherein the household appliance main function is a cooking function, and with at least one control unit , which is provided to propose, via the output unit , for selection, at least one catalogue of operation profiles for the functional unit , wherein at least one of the operation profiles is a user profile, specifically an account adapted for a user, and wherein the control unit is provided to load basic settings stored in the selected operator profile following an operator input, wherein the catalogue has at least two operator profiles , which differ in respect of an availability of at least one special function, characterised by at least one household appliance embodied as a hob, which has the functional unit , wherein the special function is a shared operation of specific heating units.
A secondary battery, comprising an electrode assembly , a pouch , an electrode lead and an insulating tape ; the electrode assembly being received in the pouch , the electrode lead being connected with the electrode assembly and extending to the outside of the pouch in a length direction (X); the electrode assembly comprising electrode plates and a separator , the separator separating the electrode plates ; an outer surface of the electrode assembly comprising a first surface and a second surface , an area of the second surface being smaller than an area of the first surface ; the first surface being provided as two in number, and the two first surfaces facing each other in a thickness direction (Z); the second surface being provided as two in number, and the two second surfaces facing each other in a width direction (Y), each second surface connecting two first surfaces ; at least a part of the insulating tape being provided on the second surface ; in the length direction (X), at least one end of the insulating tape exceeding the electrode plate , characterized in that the insulating tape comprises a first portion and a second portion , the second portion is bond on the second surface , the first portion is connected with an end portion of the second portion and bond on the first surface , in the width direction (Y), an end portion of the first portion away from the second portion does not exceed a midline of the first surface , and and a dimension of the first portion in the width direction (Y) is larger than 2mm. the electrode assembly being received in the pouch , the electrode lead being connected with the electrode assembly and extending to the outside of the pouch in a length direction (X); the electrode assembly comprising electrode plates and a separator , the separator separating the electrode plates ; an outer surface of the electrode assembly comprising a first surface and a second surface , an area of the second surface being smaller than an area of the first surface ; the first surface being provided as two in number, and the two first surfaces facing each other in a thickness direction (Z); the second surface being provided as two in number, and the two second surfaces facing each other in a width direction (Y), each second surface connecting two first surfaces ; at least a part of the insulating tape being provided on the second surface ; in the length direction (X), at least one end of the insulating tape exceeding the electrode plate , characterized in that the insulating tape comprises a first portion and a second portion , the second portion is bond on the second surface , the first portion is connected with an end portion of the second portion and bond on the first surface , in the width direction (Y), an end portion of the first portion away from the second portion does not exceed a midline of the first surface , and and a dimension of the first portion in the width direction (Y) is larger than 2mm.
A method of defining a region of interest for display on at least two medical scan images, each medical scan image comprising corresponding content, the method comprising: displaying a first medical scan image ; capturing first input data from a user, the first input data defining a region of interest on the first medical scan image ; storing the captured first input data as a first 3D region representation ; transforming the first 3D region representation to the frame of reference of a second medical scan image to create a second 3D region representation , associated with a second medical scan image , the second 3D region representation being initially based on the first 3D region representation ; displaying the region of interest on the second medical scan image , the step of displaying the region of interest on the second medical scan image comprising displaying the second 3D region representation ; capturing second input data from the user, the second input data comprising changes to the region of interest displayed on the second medical scan image ; updating the first 3D region representation in accordance with the changes, on the basis of the second input data, wherein the step of updating the first 3D region representation in accordance with changes to the region of interest displayed on the second medical scan image comprises updating the second 3D region representation , and then updating the first 3D region representation on the basis of the second 3D region representation , such that the first and second region representations are synchronised. displaying a first medical scan image ; capturing first input data from a user, the first input data defining a region of interest on the first medical scan image ; storing the captured first input data as a first 3D region representation ; transforming the first 3D region representation to the frame of reference of a second medical scan image to create a second 3D region representation , associated with a second medical scan image , the second 3D region representation being initially based on the first 3D region representation ; displaying the region of interest on the second medical scan image , the step of displaying the region of interest on the second medical scan image comprising displaying the second 3D region representation ; capturing second input data from the user, the second input data comprising changes to the region of interest displayed on the second medical scan image ; updating the first 3D region representation in accordance with the changes, on the basis of the second input data, wherein the step of updating the first 3D region representation in accordance with changes to the region of interest displayed on the second medical scan image comprises updating the second 3D region representation , and then updating the first 3D region representation on the basis of the second 3D region representation , such that the first and second region representations are synchronised.
An inflating/deflating device used for a protective clothing , comprising: an outer cylinder and an inner cylinder , characterized in that , the outer cylinder is provided with at least one first hole in its circumferential wall; the inner cylinder arranged within the outer cylinder , provided with at least one second hole in its circumferential wall, and being capable of sliding between a first position at which the second hole is aligned with the first hole, and a second position at which the second hole is deviated from the first hole and is closed by the inner wall of the outer cylinder; wherein a blade and a motor driving the blade are provided in the inner cylinder ; a biasing device is provided in the outer cylinder for biasing the inner cylinder toward the first position; wherein the inner cylinder further comprises a third opening on which a one-way valve is provided so as to only allow pressurized gas to flow from the inner cylinder through the third opening to the outside, while to prevent the pressurized gas from flowing in an opposite direction, wherein at the first position, gas pressurized by the blade in the inner cylinder is discharged into the protective clothing through the aligned first and second holes as well as the third opening , as the pressure of the gas in the cavity of the protective clothing increases up to a predetermined pressure, the inner cylinder is pushed by the pressure of the gas in the cavity towards the second position, so that the second hole is deviated from the first hole and the valve is closed. an outer cylinder and an inner cylinder , characterized in that , the outer cylinder is provided with at least one first hole in its circumferential wall; the inner cylinder arranged within the outer cylinder , provided with at least one second hole in its circumferential wall, and being capable of sliding between a first position at which the second hole is aligned with the first hole, and a second position at which the second hole is deviated from the first hole and is closed by the inner wall of the outer cylinder; wherein a blade and a motor driving the blade are provided in the inner cylinder ; a biasing device is provided in the outer cylinder for biasing the inner cylinder toward the first position; wherein the inner cylinder further comprises a third opening on which a one-way valve is provided so as to only allow pressurized gas to flow from the inner cylinder through the third opening to the outside, while to prevent the pressurized gas from flowing in an opposite direction, wherein at the first position, gas pressurized by the blade in the inner cylinder is discharged into the protective clothing through the aligned first and second holes as well as the third opening , as the pressure of the gas in the cavity of the protective clothing increases up to a predetermined pressure, the inner cylinder is pushed by the pressure of the gas in the cavity towards the second position, so that the second hole is deviated from the first hole and the valve is closed.
A method for examining a sample containing two or more sample substances comprising one or more organic polymers, wherein at least one organic polymer comprises two or more chelating groups selected from carboxylates, amines, sulfonates, carboxamides, phosphates and phosphonates, the method comprising two or more sub-methods for detecting signals, wherein the sub-methods are selected from fluorescence measurement, luminescence measurement, time-resolved luminescence measurement, and absorbance measurement, wherein at least one of the sub-methods comprises a time resolved luminescence measurement comprising (i) admixing the sample and lanthanide(III) ion in the form of lanthanide(III) salt, wherein the total concentration of the sample substances in the sample is below 10% by weight and the concentration of the lanthanide(III) ion is ≤ 10 mM, (ii) detecting signal of the lanthanide(III) ion with time-gated luminescence measurement, and (iii) calculating the quantity of one or more sample substances using the signal obtainable by the sub-method, and calculating the quantity of the two or more sample substances based on the signals obtainable by the two or more sub-methods. (i) admixing the sample and lanthanide(III) ion in the form of lanthanide(III) salt, wherein the total concentration of the sample substances in the sample is below 10% by weight and the concentration of the lanthanide(III) ion is ≤ 10 mM, (ii) detecting signal of the lanthanide(III) ion with time-gated luminescence measurement, and (iii) calculating the quantity of one or more sample substances using the signal obtainable by the sub-method, and calculating the quantity of the two or more sample substances based on the signals obtainable by the two or more sub-methods.
A baseband processor associated with a long-term evolution LTE transceiver , comprising: a baseband receive Rx path configured to propagate a receive signal in frequency domain, associated with an Rx signal path of the transceiver , forming a baseband Rx signal, wherein the baseband Rx signal comprises a wanted Rx signal and an unwanted transmit Tx modulated spur, wherein the unwanted Tx modulated spur is generated based on a leakage of a Tx signal associated with a Tx signal path of the transceiver into the Rx signal path; a baseband Tx path configured to propagate a Tx signal in frequency domain, associated with the Tx signal path of the transceiver , thereby forming a baseband Tx signal; and a cancellation circuit coupled to the baseband Rx path, configured to receive the baseband Rx signal and the baseband Tx signal, and generate a cancellation signal to the baseband Rx signal, in order to cancel the unwanted Tx modulated spur from the baseband Rx signal, wherein the cancellation signal is generated based on the baseband Rx signal and the baseband Tx signal. a baseband receive Rx path configured to propagate a receive signal in frequency domain, associated with an Rx signal path of the transceiver , forming a baseband Rx signal, wherein the baseband Rx signal comprises a wanted Rx signal and an unwanted transmit Tx modulated spur, wherein the unwanted Tx modulated spur is generated based on a leakage of a Tx signal associated with a Tx signal path of the transceiver into the Rx signal path; a baseband Tx path configured to propagate a Tx signal in frequency domain, associated with the Tx signal path of the transceiver , thereby forming a baseband Tx signal; and a cancellation circuit coupled to the baseband Rx path, configured to receive the baseband Rx signal and the baseband Tx signal, and generate a cancellation signal to the baseband Rx signal, in order to cancel the unwanted Tx modulated spur from the baseband Rx signal, wherein the cancellation signal is generated based on the baseband Rx signal and the baseband Tx signal.
A wearable wireless sensor for measuring one or more physiological parameters of a subject, said wearable wireless sensor comprising: a housing containing a circuit board ; a base comprising a first aperture ; the circuit board enclosed by the housing , said circuit board comprising a top surface, a bottom surface opposite the top surface, and a first through-hole via extending through said circuit board ; a temperature sensor responsive to a thermal energy of the subject, said temperature sensor mounted on the top surface of said circuit board , said temperature sensor configured to be in thermal contact with a portion of the subject's skin, wherein said first through-hole via is aligned with said temperature sensor and with said first aperture of said base, and wherein said first through-hole via allows said thermal energy of the subject that passes through the first aperture to pass through the circuit board and to the temperature sensor ; and thermally conductive material positioned within the first aperture of said base and said first through-hole via , said thermally conductive material configured to cause said temperature sensor to be in thermal contact with said portion of the subject's skin adjacent said first aperture of said base. a housing containing a circuit board ; a base comprising a first aperture ; the circuit board enclosed by the housing , said circuit board comprising a top surface, a bottom surface opposite the top surface, and a first through-hole via extending through said circuit board ; a temperature sensor responsive to a thermal energy of the subject, said temperature sensor mounted on the top surface of said circuit board , said temperature sensor configured to be in thermal contact with a portion of the subject's skin, wherein said first through-hole via is aligned with said temperature sensor and with said first aperture of said base, and wherein said first through-hole via allows said thermal energy of the subject that passes through the first aperture to pass through the circuit board and to the temperature sensor ; and thermally conductive material positioned within the first aperture of said base and said first through-hole via , said thermally conductive material configured to cause said temperature sensor to be in thermal contact with said portion of the subject's skin adjacent said first aperture of said base.
A method of preserving relative timing and ordering of data packets transmitted in a packet network, the packet network comprising packet engines (12, 22, 32; 50) that perform packet handling, wherein cipher engines (14, 24, 34; 60) are provided separately from the packet engines (12, 22, 32; 50) for encryption and/or authentication operations, the method comprising: pre-shaping data traffic by a packet engine (12, 22, 32; 50), wherein the packet engine (12, 22, 32; 50) inserts dummy packets into a data flow, wherein the packet engine (12, 22, 32; 50) inserts the dummy packets into the data flow at a repetition interval, and providing, by the packet engine (12, 22, 32; 50), the pre-shaped data traffic to a cipher engine (14, 24, 34; 60). pre-shaping data traffic by a packet engine (12, 22, 32; 50), wherein the packet engine (12, 22, 32; 50) inserts dummy packets into a data flow, wherein the packet engine (12, 22, 32; 50) inserts the dummy packets into the data flow at a repetition interval, and providing, by the packet engine (12, 22, 32; 50), the pre-shaped data traffic to a cipher engine (14, 24, 34; 60).
A method of treating a hydroformylation catalyst solution comprising rhodium, polyphosphoramidite ligand, and polyphosphoramidite ligand degradation products, wherein the hydroformylation catalyst solution is used to hydroformylate an olefin in an operating hydroformylation unit, the method comprising: contacting the catalyst solution with a peroxide in the operating hydroformylation unit.