mhurhangee/ep-ind-claims huggingface dataset:
A charging protection circuit comprising: a wireless charging base and a chargi ng receiving circuit, the charging receiving circuit comprising: first receiving coils which are configured to receive electromagnetic waves from the wi reless chargi ng base; and a power supply circuit configured to convert electromagnetic energy generated by the electromagnetic waves received by the first receiving coils into electric energy to supply power to a power receiving devic and a high-permeability magnetic core which is coupled to the first receiving coils and the power supply circuit and is configured to block electromagnetic waves opposite to the electromagnetic waves from the wireless charging base; characterized in that the charge receiving circuit further comprises: a detection circuit which is coupled to the high-permeability magnetic core and is provided between the high-permeability magnetic core and the power receiving device, wherein the detection circuit is configured to compare the electromagnetic waves received from the wireless charging base while the high-permeability magnetic core is operating normally and while the high-permeability magnetic core has failed in order to detect whether the high-permeability magnetic core has failed. first receiving coils which are configured to receive electromagnetic waves from the wi reless chargi ng base; and a power supply circuit configured to convert electromagnetic energy generated by the electromagnetic waves received by the first receiving coils into electric energy to supply power to a power receiving devic and a high-permeability magnetic core which is coupled to the first receiving coils and the power supply circuit and is configured to block electromagnetic waves opposite to the electromagnetic waves from the wireless charging base; characterized in that the charge receiving circuit further comprises: a detection circuit which is coupled to the high-permeability magnetic core and is provided between the high-permeability magnetic core and the power receiving device, wherein the detection circuit is configured to compare the electromagnetic waves received from the wireless charging base while the high-permeability magnetic core is operating normally and while the high-permeability magnetic core has failed in order to detect whether the high-permeability magnetic core has failed.
Damper for a rotary movement, in particular of toilet lids or seats, about an axis of rotation, having a housing, a viscous damping medium in the housing, a first damper element, which has a first part in the housing and a second part, firmly connected to the first part in a rotational sense, outside the housing and which is rotatable with the first and the second part relative to the housing about the axis of rotation, a second damper element, which is firmly coupled to the housing with respect to rotations about the axis of rotation, and which is coupled to the first damper element such that a rotation of the first damper element relative to the housing leads to an axial displacement of the second damper element relative to the first damper element and a displacement of the damping medium in the housing by the second damper element, characterized in that the second damper element is coupled to the first damper element by means of a thread engagement and is received radially in the first damper element at least to the extent that the thread engagement is present in the first damper element, and that the thread engagement and the resulting displacement of the damping medium by the second damping element have a bidirectional effect. a housing, a viscous damping medium in the housing, a first damper element, which has a first part in the housing and a second part, firmly connected to the first part in a rotational sense, outside the housing and which is rotatable with the first and the second part relative to the housing about the axis of rotation, a second damper element, which is firmly coupled to the housing with respect to rotations about the axis of rotation, and which is coupled to the first damper element such that a rotation of the first damper element relative to the housing leads to an axial displacement of the second damper element relative to the first damper element and a displacement of the damping medium in the housing by the second damper element, characterized in that the second damper element is coupled to the first damper element by means of a thread engagement and is received radially in the first damper element at least to the extent that the thread engagement is present in the first damper element, and that the thread engagement and the resulting displacement of the damping medium by the second damping element have a bidirectional effect.
Method for cleaning an iron comprising an ironing soleplate overmounted with a heating body comprising a vaporisation chamber and a steam distribution circuit configured to supply steam outlet orifices arranged in the ironing soleplate, the steam distribution circuit comprising a scale recovery cavity comprising an evacuation orifice closed by a removable plug that can be accessed from outside the iron, the vaporisation chamber being intended to be supplied with water by means of a supply pump, characterised in that the cleaning method comprises: - a first step of heating the vaporisation chamber to a temperature greater than 150°C and advantageously greater than 170°C, - a second step of injecting water into the vaporisation chamber by means of the supply pump during which the flow rate of water injected into the vaporisation chamber is greater than a maximum flow rate of water injected into the vaporisation chamber during a step of ironing, the iron being maintained, during the second step of injecting water, in a cleaning position wherein the water injected by the supply pump into the vaporisation chamber draws particles of scale into the scale recovery cavity, the operating time of the supply pump during the second step of injecting water being less than the time required for the volume of water injected by the supply pump to rise via the steam distribution circuit and reach at least one steam outlet orifice of the ironing soleplate, - a third step during which the operation of the supply pump is interrupted, and - a fourth step of evacuating the scale collected in the scale recovery cavity by opening the removable plug. - a first step of heating the vaporisation chamber to a temperature greater than 150°C and advantageously greater than 170°C, - a second step of injecting water into the vaporisation chamber by means of the supply pump during which the flow rate of water injected into the vaporisation chamber is greater than a maximum flow rate of water injected into the vaporisation chamber during a step of ironing, the iron being maintained, during the second step of injecting water, in a cleaning position wherein the water injected by the supply pump into the vaporisation chamber draws particles of scale into the scale recovery cavity, the operating time of the supply pump during the second step of injecting water being less than the time required for the volume of water injected by the supply pump to rise via the steam distribution circuit and reach at least one steam outlet orifice of the ironing soleplate, - a third step during which the operation of the supply pump is interrupted, and - a fourth step of evacuating the scale collected in the scale recovery cavity by opening the removable plug.
A resistance-switching memory cell, comprising: a resistance-switching memory element (RSME), comprising: first and second electrodes; a conductive or semiconductive intermediate layer electrically between, and in series with, the first and second electrodes; a resistance-switching layer electrically between, and in series with, the first electrode and the conductive or semiconductive intermediate layer; and a breakdown layer (BREAKDOWN RSL) electrically between, and in series with, the second electrode and the conductive or semiconductive intermediate layer, wherein the breakdown layer maintains a resistance of at least about 1-10 MΩ while in a conductive state and the breakdown layer is selected from the group consisting of SiC and SiCN; and a steering element in series with the resistance switching memory element. a resistance-switching memory element (RSME), comprising: first and second electrodes; a conductive or semiconductive intermediate layer electrically between, and in series with, the first and second electrodes; a resistance-switching layer electrically between, and in series with, the first electrode and the conductive or semiconductive intermediate layer; and a breakdown layer (BREAKDOWN RSL) electrically between, and in series with, the second electrode and the conductive or semiconductive intermediate layer, wherein the breakdown layer maintains a resistance of at least about 1-10 MΩ while in a conductive state and the breakdown layer is selected from the group consisting of SiC and SiCN; and a steering element in series with the resistance switching memory element. first and second electrodes; a conductive or semiconductive intermediate layer electrically between, and in series with, the first and second electrodes; a resistance-switching layer electrically between, and in series with, the first electrode and the conductive or semiconductive intermediate layer; and a breakdown layer (BREAKDOWN RSL) electrically between, and in series with, the second electrode and the conductive or semiconductive intermediate layer, wherein the breakdown layer maintains a resistance of at least about 1-10 MΩ while in a conductive state and the breakdown layer is selected from the group consisting of SiC and SiCN; and a steering element in series with the resistance switching memory element.
An automated device to transfer and thread a bearing band on a fixed reel from a removable reel, wherein said reels (1,2) are joined and integral to corresponding support shafts (4,5) adapted to rotate by means of corresponding motors, wherein the device is characterised in that it further comprises: - a folding arm adapted to perform a translational movement between a pick-up angle position and a threading position, which in turn comprises a hook in an upper portion configured to pick up the bearing band of the removable reel in the pick-up angle position, and to place the bearing band on the fixed reel in the threading angle position, and wherein said arm further comprises a carriage which is rigidly attached to a lower portion thereof, and - a bed adapted to allow the horizontal rectilinear relative motion of the carriage between the removable reel and the fixed reel by means of horizontal transport elements. - a folding arm adapted to perform a translational movement between a pick-up angle position and a threading position, which in turn comprises a hook in an upper portion configured to pick up the bearing band of the removable reel in the pick-up angle position, and to place the bearing band on the fixed reel in the threading angle position, and wherein said arm further comprises a carriage which is rigidly attached to a lower portion thereof, and - a bed adapted to allow the horizontal rectilinear relative motion of the carriage between the removable reel and the fixed reel by means of horizontal transport elements.
A surface cooler (2; 90; 170) comprising: a base plate (6; 95; 172) having an outer surface; and at least one fin element (9, 10; 99, 100; 177, 178) extending from the base plate, the at least one fin element having an outer surface portion (18, 22, 24, 39, 42, 45; 109, 113, 117, 134, 138, 142; 188, 192, 196, 209, 213, 217) that is configured and disposed to be in direct contact with a first fluid and an inner surface portion (19, 23, 25, 40, 43, 46; 110, 114, 118, 135, 139, 143; 189, 193, 197, 210, 214, 218) that is configured and disposed to be in direct contact with a second fluid, the at least one fin element defining a primary heat exchange member that is configured and disposed to facilitate an exchange of heat between the first and second fluids, characterised in that the outer surface of the the base plate and the inner surface portion of the at least one fin element are formed to define a fluid channel that is configured to pass the second fluid through an interior of the at least one fin element. a base plate (6; 95; 172) having an outer surface; and at least one fin element (9, 10; 99, 100; 177, 178) extending from the base plate, the at least one fin element having an outer surface portion (18, 22, 24, 39, 42, 45; 109, 113, 117, 134, 138, 142; 188, 192, 196, 209, 213, 217) that is configured and disposed to be in direct contact with a first fluid and an inner surface portion (19, 23, 25, 40, 43, 46; 110, 114, 118, 135, 139, 143; 189, 193, 197, 210, 214, 218) that is configured and disposed to be in direct contact with a second fluid, the at least one fin element defining a primary heat exchange member that is configured and disposed to facilitate an exchange of heat between the first and second fluids, characterised in that the outer surface of the the base plate and the inner surface portion of the at least one fin element are formed to define a fluid channel that is configured to pass the second fluid through an interior of the at least one fin element.
Method for transmitting messages from a server to a client in an internet transmission system, the method comprising the following steps: a. the client sends to the server a request for transmitting a picture file, b. in response to the reception of the request, the server generates a picture file with a first content, in case no message is available for the client, and delays the transmission of the picture file to the client for a certain time interval (202,204,208), c. in response to the reception of the picture file with the first content, the client again sends a request for transmitting a picture file (210,212,216), d. the steps (a) to (c) are repeated till a message is available for transmission to the client, e. the server transmits, in response to the last request of the client, the picture file with a second content, f. in response to the reception of the picture file with the second content, the client sends a request for transmitting the message (212,214), g. in response to the reception of the request for transmitting the message, the server transmits the message to the client. a. the client sends to the server a request for transmitting a picture file, b. in response to the reception of the request, the server generates a picture file with a first content, in case no message is available for the client, and delays the transmission of the picture file to the client for a certain time interval (202,204,208), c. in response to the reception of the picture file with the first content, the client again sends a request for transmitting a picture file (210,212,216), d. the steps (a) to (c) are repeated till a message is available for transmission to the client, e. the server transmits, in response to the last request of the client, the picture file with a second content, f. in response to the reception of the picture file with the second content, the client sends a request for transmitting the message (212,214), g. in response to the reception of the request for transmitting the message, the server transmits the message to the client.
An extended range single user mode physical layer protocol data unit transmission method, applied to a wireless local area network, wherein the method comprises: generating an extended range single user mode physical layer protocol data unit, wherein a high-efficiency signaling A field of the extended range single user mode physical layer protocol data unit includes an identifier, the identifier being indicative of a bandwidth of a subband used for transmitting a data part of the extended range single user mode physical layer protocol data unit, the bandwidth of the subband includes at least one of the following parameters: a 26-tone RU, a 52-tone RU, a 106-tone RU, or a 242-tone RU; and performing repeated subband transmission on the data part of the extended range single user mode physical layer protocol data unit. generating an extended range single user mode physical layer protocol data unit, wherein a high-efficiency signaling A field of the extended range single user mode physical layer protocol data unit includes an identifier, the identifier being indicative of a bandwidth of a subband used for transmitting a data part of the extended range single user mode physical layer protocol data unit, the bandwidth of the subband includes at least one of the following parameters: a 26-tone RU, a 52-tone RU, a 106-tone RU, or a 242-tone RU; and performing repeated subband transmission on the data part of the extended range single user mode physical layer protocol data unit.
A method of manufacturing a semiconductor device, comprising the steps of: preparing a SiC layer composed of silicon carbide; forming an n-type region and a p-type region in a main surface of said SiC layer; and forming an ohmic electrode on the main surface of said SiC layer, wherein the step of forming said ohmic electrode includes the steps of forming a conductor layer (51, 52, 53) which will become said ohmic electrode on the main surface of said SiC layer, and performing heat treatment such that said conductor layer (51, 52, 53) becomes said ohmic electrode, and wherein, in the step of forming said conductor layer, a titanium film, an aluminum film, and a silicon film is formed in that order on the main surface of said n-type region and on the main surface of said p-type region that are exposed, and,, wherein, after the step of performing said heat treatment, a temperature of said ohmic electrode when a surface of said ohmic electrode is exposed to an atmosphere containing oxygen is set to 60°C or lower. preparing a SiC layer composed of silicon carbide; forming an n-type region and a p-type region in a main surface of said SiC layer; and forming an ohmic electrode on the main surface of said SiC layer, wherein the step of forming said ohmic electrode includes the steps of forming a conductor layer (51, 52, 53) which will become said ohmic electrode on the main surface of said SiC layer, and performing heat treatment such that said conductor layer (51, 52, 53) becomes said ohmic electrode, and wherein, in the step of forming said conductor layer, a titanium film, an aluminum film, and a silicon film is formed in that order on the main surface of said n-type region and on the main surface of said p-type region that are exposed, and,, wherein, after the step of performing said heat treatment, a temperature of said ohmic electrode when a surface of said ohmic electrode is exposed to an atmosphere containing oxygen is set to 60°C or lower.
A bone fixation element, comprising: a head from which a shaft extends distally therefrom substantially along a longitudinal axis L of the fixation element wherein the head includes a plurality of fixation element openings distributed about a perimeter thereof, each of the fixation element openings extending through the head from a proximal surface thereof to a distal surface of the head, each of the fixation element openings extending through the head along an opening axis C, characterized in that at least two of the fixation openings are only partially enclosed by the head so that a proximal portion of each of the at least two openings is left open, such that at least two of the fixation openings are enclosed from between more than 180° to less than 360°. a head from which a shaft extends distally therefrom substantially along a longitudinal axis L of the fixation element wherein the head includes a plurality of fixation element openings distributed about a perimeter thereof, each of the fixation element openings extending through the head from a proximal surface thereof to a distal surface of the head, each of the fixation element openings extending through the head along an opening axis C, characterized in that at least two of the fixation openings are only partially enclosed by the head so that a proximal portion of each of the at least two openings is left open, such that at least two of the fixation openings are enclosed from between more than 180° to less than 360°.
Aircraft nacelle that makes it possible to channel a stream of air in a longitudinal direction, said nacelle comprising: - at least two panels (50, 50') placed end to end in the longitudinal direction, each comprising a so-called aerodynamic surface (52, 52') that is in contact with the air stream and an edge (54, 54') that is in contact with the edge of the other panel, and - an annular cavity arranged between the two edges (54, 54'), at least one of the panels comprising - at its edge (54, 54') - at least one partition that projects relative to said edge that extends in the direction of the edge of the other panel, in a manner that is secant to the aerodynamic surface, characterized in that said partition is a point element that do not extend over the entire circumference of the annular cavity, said partition extending across the annular cavity in a plane that contains the longitudinal direction, so as to limit the circulation of air between the edges of the panels. - at least two panels (50, 50') placed end to end in the longitudinal direction, each comprising a so-called aerodynamic surface (52, 52') that is in contact with the air stream and an edge (54, 54') that is in contact with the edge of the other panel, and - an annular cavity arranged between the two edges (54, 54'), at least one of the panels comprising - at its edge (54, 54') - at least one partition that projects relative to said edge that extends in the direction of the edge of the other panel, in a manner that is secant to the aerodynamic surface, characterized in that said partition is a point element that do not extend over the entire circumference of the annular cavity, said partition extending across the annular cavity in a plane that contains the longitudinal direction, so as to limit the circulation of air between the edges of the panels.
A freezer segment for a freezer of the type to be used in making confectionery, including edible ice of ice-cream and so-called water ice or combinations thereof, where confectionery is cast in moulds which are cooled for freezing after filling, and to which heat is applied after sufficient freezing or subjected to shock cooling for a short period so that removal from the mould may take place, wherein the freezer segment comprises at least one row of a plurality of individual moulds, characterised in that the freezer segment comprises plate-shaped, extruded aluminium multi-chamber profiles with multiple individual channels arranged for transport of CO 2 and for direct evaporation of the CO 2, that the multiple individual channels of at least one of the plate-shaped extruded aluminium multi-chamber profiles extend along the plurality of individual moulds for cooling of the plurality of individual moulds in the at least one row of individual moulds by heat conduction between the plurality of individual moulds in the at least one row of individual moulds and the CO 2 in the multiple individual channels, that the at least one row of the plurality of individual moulds forms a mould cassette that is arranged along at least one wall, that the wall is partially or entirely constituted by the extruded aluminium multi-chamber profile and that a gap appears between the mould cassette and the extruded multi-chamber profiles.