mhurhangee/patent-ind-claim-en huggingface dataset:
An appliance comprising: a first surface that defines a heating cavity and a second surface opposite said first surface ; and a composite article for insulating said appliance, said composite article comprising: a backing layer spaced from said first surface , with said backing layer comprising a foamed polyurethane (PUR), a foamed polyisocyanurate (PIR), or a foamed PUR/PIR hybrid; and an insulating layer sandwiched between said second surface and said backing layer , with said insulating layer comprising a foamed silicone; wherein said insulating layer reduces heat transfer from the heating cavity to said backing layer ; optionally wherein said first and second surfaces comprise a metal; optionally wherein said insulating layer is adhered to said second surface , and said backing layer is adhered to said insulating layer ; and optionally wherein said appliance is an oven , a stove (or cooktop) , a range , a microwave, a dishwasher, a water heater, or a boiler. a first surface that defines a heating cavity and a second surface opposite said first surface ; and a composite article for insulating said appliance, said composite article comprising: a backing layer spaced from said first surface , with said backing layer comprising a foamed polyurethane (PUR), a foamed polyisocyanurate (PIR), or a foamed PUR/PIR hybrid; and an insulating layer sandwiched between said second surface and said backing layer , with said insulating layer comprising a foamed silicone; wherein said insulating layer reduces heat transfer from the heating cavity to said backing layer ; optionally wherein said first and second surfaces comprise a metal; optionally wherein said insulating layer is adhered to said second surface , and said backing layer is adhered to said insulating layer ; and optionally wherein said appliance is an oven , a stove (or cooktop) , a range , a microwave, a dishwasher, a water heater, or a boiler. a backing layer spaced from said first surface , with said backing layer comprising a foamed polyurethane (PUR), a foamed polyisocyanurate (PIR), or a foamed PUR/PIR hybrid; and an insulating layer sandwiched between said second surface and said backing layer , with said insulating layer comprising a foamed silicone; wherein said insulating layer reduces heat transfer from the heating cavity to said backing layer ; optionally wherein said first and second surfaces comprise a metal; optionally wherein said insulating layer is adhered to said second surface , and said backing layer is adhered to said insulating layer ; and optionally wherein said appliance is an oven , a stove (or cooktop) , a range , a microwave, a dishwasher, a water heater, or a boiler.
A power control method, comprising: receiving an indication information, wherein the indication information is used to indicate a reference power control parameter; determining a power control parameter specific to a first bandwidth part of a terminal device based on the reference power control parameter, a reference transmission parameter, and a transmission parameter of the first bandwidth part; and sending uplink information on the first bandwidth part by using a transmit power, wherein the transmit power is based on the power control parameter specific to the first bandwidth part and a common power control parameter of a carrier in which the first bandwidth part and a second bandwidth part of the terminal device are located, wherein the common power control parameter is common to the first bandwidth part and the second bandwidth part; wherein the power control parameter specific to the first bandwidth part comprises an open-loop power control parameter specific to the first bandwidth part, and the common power control parameter comprises a common open-loop power control parameter; wherein the power control parameter specific to the first bandwidth part comprises a power offset of an expected power for demodulation, and the common power control parameter comprises an expected power for demodulation. receiving an indication information, wherein the indication information is used to indicate a reference power control parameter; determining a power control parameter specific to a first bandwidth part of a terminal device based on the reference power control parameter, a reference transmission parameter, and a transmission parameter of the first bandwidth part; and sending uplink information on the first bandwidth part by using a transmit power, wherein the transmit power is based on the power control parameter specific to the first bandwidth part and a common power control parameter of a carrier in which the first bandwidth part and a second bandwidth part of the terminal device are located, wherein the common power control parameter is common to the first bandwidth part and the second bandwidth part; wherein the power control parameter specific to the first bandwidth part comprises an open-loop power control parameter specific to the first bandwidth part, and the common power control parameter comprises a common open-loop power control parameter; wherein the power control parameter specific to the first bandwidth part comprises a power offset of an expected power for demodulation, and the common power control parameter comprises an expected power for demodulation.
An electronic device comprising: a housing; a first conductive member constructing at least part of the housing or disposed at least partially inside the housing; a communication circuit electrically coupled to the first conductive member; a second conductive member disposed to be separated from the first conductive member in the housing; a sensor module electrically coupled to the first conductive member and the second conductive member; and at least one processor which controls the electronic device to perform a corresponding function upon detecting an external object by the sensor module, characterized in that, the first conductive member comprises a slot configured to operate as a slot antenna, the slot being constructed along an edge of the first conductive member, a plurality of protruding pieces are constructed in the slot, the plurality of protruding pieces protruding from the edge of the first conductive member in a slot direction, a first protruding piece of the plurality of protruding pieces is electrically coupled with a feeding part , a second protruding piece of the plurality of protruding pieces is electrically coupled with a ground part , and a third protruding piece of the plurality of protruding pieces is electrically coupled with the sensor module. a housing; a first conductive member constructing at least part of the housing or disposed at least partially inside the housing; a communication circuit electrically coupled to the first conductive member; a second conductive member disposed to be separated from the first conductive member in the housing; a sensor module electrically coupled to the first conductive member and the second conductive member; and at least one processor which controls the electronic device to perform a corresponding function upon detecting an external object by the sensor module, characterized in that, the first conductive member comprises a slot configured to operate as a slot antenna, the slot being constructed along an edge of the first conductive member, a plurality of protruding pieces are constructed in the slot, the plurality of protruding pieces protruding from the edge of the first conductive member in a slot direction, a first protruding piece of the plurality of protruding pieces is electrically coupled with a feeding part , a second protruding piece of the plurality of protruding pieces is electrically coupled with a ground part , and a third protruding piece of the plurality of protruding pieces is electrically coupled with the sensor module.
Continuous method for the sterilisation of a dermo-cosmetic product wherein the flow rate is maintained during steps i) to iii), the dermo-cosmetic product comprising an emulsive base comprising at least a fatty phase and an aqueous phase, as well as an acid polymer gelling agent, comprising the steps of: i. emulsifying the emulsive base, comprising the gelling agent in the non-neutralised state, at a temperature T1, so as to obtain a pre-emulsion; ii. sterilising the pre-emulsion by means of a thermal process capable of achieving a reduction of at least 15 Log of the number of germs in a unit of volume of the treated pre-emulsion; iii. finalising the product in a sterile mixing station at a temperature equal to or less than T1, the finalising step comprising the neutralisation of the gelling agent so as to obtain the final viscosity and stability of the product. i. emulsifying the emulsive base, comprising the gelling agent in the non-neutralised state, at a temperature T1, so as to obtain a pre-emulsion; ii. sterilising the pre-emulsion by means of a thermal process capable of achieving a reduction of at least 15 Log of the number of germs in a unit of volume of the treated pre-emulsion; iii. finalising the product in a sterile mixing station at a temperature equal to or less than T1, the finalising step comprising the neutralisation of the gelling agent so as to obtain the final viscosity and stability of the product.
A dry type cast-coil transformer having a voltage rating of 1 kV and above, comprising: a. at least one coil with a plurality of conductor turns ; b. a cast comprising a polymeric resin, encompassing the coil and having a cast surface ; c. a ferromagnetic core on which the coil with the encompassing cast is mounted; d. an insulated cable termination connected to the coil , wherein the connection point between the insulated cable termination and the coil is within the cast , and wherein a first part of the insulated cable termination extends from the connection point through a portion of the cast to the cast surface , e. a second part of the insulated cable termination forms a flexible portion of the insulated cable termination which further extends from the cast surface outwards, and f. at least the flexible portion of the insulated cable termination comprises a plurality of metal wires , characterized in that g. the insulated cable termination comprises a plurality of sheds provided around the flexible portion of the insulated cable termination for at least a part of its length outwards from the cast surface . a. at least one coil with a plurality of conductor turns ; b. a cast comprising a polymeric resin, encompassing the coil and having a cast surface ; c. a ferromagnetic core on which the coil with the encompassing cast is mounted; d. an insulated cable termination connected to the coil , wherein the connection point between the insulated cable termination and the coil is within the cast , and wherein a first part of the insulated cable termination extends from the connection point through a portion of the cast to the cast surface , e. a second part of the insulated cable termination forms a flexible portion of the insulated cable termination which further extends from the cast surface outwards, and f. at least the flexible portion of the insulated cable termination comprises a plurality of metal wires , characterized in that g. the insulated cable termination comprises a plurality of sheds provided around the flexible portion of the insulated cable termination for at least a part of its length outwards from the cast surface .
A computer implemented method for calculating values indicative for the local spatial structure of conducting properties of heart muscle tissue, using a continuous region of interest, ROI, where it is considered that there may exist a conducting channel, CC, wherein each point of the ROI is associated with a value of a given spatial distribution assigning a value to every point of the ROI representing the tissue properties acquired via an acquisition technology, the method comprising performing, by a processor of a computer system, for each one of a plurality of points within the ROI, the following steps: a) spanning a plurality of rays starting from the given point within the ROI in multiple 3-D directions by at least using coordinates of a reference coordinate system of the point, providing a structure with a plurality of rays with a given geometry; b) defining a sequence of sampling points on each ray of said structure; c) mapping the value of the spatial distribution on each defined sampling point of each ray of the structure; d) classifying each ray of the structure by assigning to each ray a single value based on: the mapped values, the absolute positions within said reference coordinate system of the sampling points, and the positions of the sampling points relative to each ray of the structure, providing an associated ray value; and e) reducing each structure to a single point value in view of the geometry of the rays and their associated ray value, wherein said single point value is indicative of a local spatial structure of conducting properties of an area of heart muscle tissue. a) spanning a plurality of rays starting from the given point within the ROI in multiple 3-D directions by at least using coordinates of a reference coordinate system of the point, providing a structure with a plurality of rays with a given geometry; b) defining a sequence of sampling points on each ray of said structure; c) mapping the value of the spatial distribution on each defined sampling point of each ray of the structure; d) classifying each ray of the structure by assigning to each ray a single value based on: the mapped values, the absolute positions within said reference coordinate system of the sampling points, and the positions of the sampling points relative to each ray of the structure, providing an associated ray value; and the mapped values, the absolute positions within said reference coordinate system of the sampling points, and the positions of the sampling points relative to each ray of the structure, providing an associated ray value; and e) reducing each structure to a single point value in view of the geometry of the rays and their associated ray value, wherein said single point value is indicative of a local spatial structure of conducting properties of an area of heart muscle tissue.
A guidance robot comprising: a bottom section having wheels and a motor to rotate at least one wheel ; a middle section located above the bottom section ; a top section located above the middle section and configured to be rotatable relative to the middle section ; and a reader located inside the top section or the middle section and configured to recognize a readable code of an object, wherein the reader comprises: a seating section on which the object is to be placed; a mirror arranged above the seating section ; and a sensor mount which is coupled to the seating section and on which an image sensor facing the mirror is mounted. a bottom section having wheels and a motor to rotate at least one wheel ; a middle section located above the bottom section ; a top section located above the middle section and configured to be rotatable relative to the middle section ; and a reader located inside the top section or the middle section and configured to recognize a readable code of an object, wherein the reader comprises: a seating section on which the object is to be placed; a mirror arranged above the seating section ; and a sensor mount which is coupled to the seating section and on which an image sensor facing the mirror is mounted. a seating section on which the object is to be placed; a mirror arranged above the seating section ; and a sensor mount which is coupled to the seating section and on which an image sensor facing the mirror is mounted.
A sensor structure - including a first sensor having a sensing element sensitive to humidity of the environment, characterized in that - it includes additionally a second sensor having a sensing element sensitive to humidity, the second sensor comprising a catalytic permeable decomposition layer positioned on the second sensor such that it is between the sensing element of the second sensor and the environment, wherein a chemical to be measured is H 2 O 2 and - it includes means for forming a difference between the measurement signals of the two sensors in order to determine a concentration of the chemical to be measured. - including a first sensor having a sensing element sensitive to humidity of the environment, - it includes additionally a second sensor having a sensing element sensitive to humidity, the second sensor comprising a catalytic permeable decomposition layer positioned on the second sensor such that it is between the sensing element of the second sensor and the environment, wherein a chemical to be measured is H 2 O 2 and - it includes means for forming a difference between the measurement signals of the two sensors in order to determine a concentration of the chemical to be measured.
A pack comprising a group of tobacco industry products wrapped in a laminate material to form a bundle , a base portion containing the bundle, and a lid mounted to the base portion for rotation between open and closed positions, the laminate material comprising an outer layer having a first cut that defines an outer layer region bounded by said first cut , and an inner layer having a second cut that defines an inner layer region bounded by said second cut , the inner layer region lying within the outer layer region, wherein the laminate material further comprises a pressure-sensitive adhesive between the inner layer and the outer layer, said pack being characterized in that : a part of the outer layer region is attached to an inside surface of the lid such that, as the lid is rotated into its open position, the inner and outer layer regions are lifted causing the inner and outer layers to delaminate in a peripheral region between the first and second cuts and an opening to be created in the laminate material , wherein said pressure-sensitive adhesive between the inner layer and the outer layer is such that said peripheral region re-adheres when the lid is rotated into its closed position, and wherein the laminate material further comprises an adhesive-free region between the inner layer and the outer layer that extends over the first and second cuts.
A wind turbine generator comprising an electrical generator , a dump load unit for dissipating power from the electrical generator and for damping electrical grid oscillations, a wind turbine power controller and a damping controller both arranged to control wind turbine components based on a damping reference signal, - the damping reference signal being a combined signal, and comprising a first reference signal and an oscillating second reference signal, - said wind turbine power controller is arranged to control the power from the electrical generator according to the first reference signal in order to avoid excitation of mechanical vibrations in the electrical generator , and - said damping controller is arranged to control the dump load unit to dissipate power from the electrical generator according to the oscillating second reference signal in order to dampen electrical grid oscillations. - the damping reference signal being a combined signal, and comprising a first reference signal and an oscillating second reference signal, - said wind turbine power controller is arranged to control the power from the electrical generator according to the first reference signal in order to avoid excitation of mechanical vibrations in the electrical generator , and - said damping controller is arranged to control the dump load unit to dissipate power from the electrical generator according to the oscillating second reference signal in order to dampen electrical grid oscillations.
An endoscopic diagnosis system, comprising: a first narrowband light source for emitting first narrowband light having a given wavelength range; a second narrowband light source for emitting second narrowband light having a wavelength range different from that of the first narrowband light; a white light source for emitting white light; a first image sensor for receiving reflected light of the white light and the first narrowband light illuminating a subject at a given emission ratio from the subject and acquiring a narrowband light image in a narrowband light observation mode; a second image sensor for receiving first autofluorescence emitted from the subject as the first narrowband light illuminates the subject to acquire a first autofluorescence image in a first autofluorescence observation mode and receiving second autofluorescence emitted from the subject as the second narrowband light illuminates the subject to acquire a second autofluorescence image in a second autofluorescence observation mode; and a light source controller for switching the narrowband light observation mode, the first autofluorescence observation mode, and the second autofluorescence observation mode in this order every predetermined frame time, and for increasing emission amounts of the first and the second narrowband light in the first and the second autofluorescence observation mode to emission amounts greater than emission amounts used in the narrowband light observation mode. a second narrowband light source for emitting second narrowband light having a wavelength range different from that of the first narrowband light; a white light source for emitting white light; a first image sensor for receiving reflected light of the white light and the first narrowband light illuminating a subject at a given emission ratio from the subject and acquiring a narrowband light image in a narrowband light observation mode; a second image sensor for receiving first autofluorescence emitted from the subject as the first narrowband light illuminates the subject to acquire a first autofluorescence image in a first autofluorescence observation mode and receiving second autofluorescence emitted from the subject as the second narrowband light illuminates the subject to acquire a second autofluorescence image in a second autofluorescence observation mode; and a light source controller for switching the narrowband light observation mode, the first autofluorescence observation mode, and the second autofluorescence observation mode in this order every predetermined frame time, and for increasing emission amounts of the first and the second narrowband light in the first and the second autofluorescence observation mode to emission amounts greater than emission amounts used in the narrowband light observation mode.