mhurhangee/patent-ind-claim-en huggingface dataset:
An electric vehicle charging controller (EVCC 100) configured to be mounted in an electric vehicle (EV 10) and including a power supply unit and a charging control apparatus comprising: a proximity detection port to which a proximity signal (PS) is input from a connector of a charging cable ; a first proximity detection interface configured to generate a first proximity detection signal (PD1) based on the proximity signal (PS); a controller configured to determine whether the connector of the charging cable is in proximity based on the first proximity detection signal (PD1); and a relay disposed between the proximity detection port and the first proximity detection interface and configured to provide the proximity identification signal (PSC) to the controller based on a control by the controller , wherein the controller is further configured to allow the relay to provide the proximity identification signal (PSC) when it is determined that the connector of the charging cable is not in proximity based on the first proximity detection signal (PD1), and determine that the battery is short-circuited when the proximity detection identification signal (PSC) is equal to or higher than a predetermined voltage level. a proximity detection port to which a proximity signal (PS) is input from a connector of a charging cable ; a first proximity detection interface configured to generate a first proximity detection signal (PD1) based on the proximity signal (PS); a controller configured to determine whether the connector of the charging cable is in proximity based on the first proximity detection signal (PD1); and a relay disposed between the proximity detection port and the first proximity detection interface and configured to provide the proximity identification signal (PSC) to the controller based on a control by the controller , wherein the controller is further configured to allow the relay to provide the proximity identification signal (PSC) when it is determined that the connector of the charging cable is not in proximity based on the first proximity detection signal (PD1), and determine that the battery is short-circuited when the proximity detection identification signal (PSC) is equal to or higher than a predetermined voltage level.
Electrical connecting apparatus for supplying power to coupled cars of rail vehicles with a first plug connector (20, 20', 20", 20′′′) to which at least one cable is connected and a corresponding second plug connector that is provided for attachment to a car wall, wherein the first plug connector (20, 20', 20", 20''') and the second plug connector are each provided with one or more corresponding first contact elements or second contact elements that can be plugged together in a plugging direction (A) and the cable of the first plug connector (20, 20', 20" , 20′′′) emanates from the first plug connector (20, 20', 20", 20′′′) in a first cable outlet direction (B), wherein the second plug connector is embodied as an integral assembly unit for connecting a plurality of first plug connectors (20, 20', 20", 20′′′), and wherein a plurality of first plug connectors (20, 20', 20", 20′′′) is provided that can be separately plugged together with and can be locked to the second plug connector , characterized in that the first cable outlet direction (B) is angled perpendicularly to the plugging direction (A), in that a second cable outlet direction (C) of a cable of the second plug connector is angled relative to the plugging direction (A), in that a holding device is provided that supports each first plug connector (20, 20', 20", 20′′′) on the second plug connector against forces acting in the first cable outlet direction (B) when plugged together with the second plug connector in the direction (A), in that the holding device is formed from a latching lug and a latching arm , wherein the second plug connector has a housing and the housing of the second plug connector has the latching arm , in that in a plugged-together state of each first plug connector (20, 20', 20", 20′′′) and the second plug connector the first cable outlet direction (B) is oriented parallel to a fastening plane (E) in which the second plug connector is provided for attachment to a car wall.
Vehicle for transporting boxes in a loading volume , said boxes being stacked on at least one trolley with wheels, engaging with at least one guide rail attached to the floor to guide the movement of said trolley, the vehicle comprising at least one device exerting a horizontal force on a row of boxes placed on at least one trolley to move them towards an opening of the vehicle, the vehicle comprising at least one roof bar for holding, at an upper portion, at least one stack of boxes placed on a trolley, characterised in that the vehicle further comprises at least one stabiliser bar attached horizontally over the length of at least one internal wall of the loading volume , the boxes comprising at least one longitudinal sill extending on the side and on the top, the stabiliser bar hooking onto said sill from the top.
A method comprising: transmitting from an appliance connected to a first virtual device context, VDC, (104(a)) instantiated on a network device a request for statistics associated with selected ones of a plurality of VDCs (104(a), 104(b), 104(c), 104(d)) implemented on the network device, wherein the plurality of VDCs includes the first VDC, wherein the selected ones of the plurality of VDCs comprise at least two of the plurality of VDCs, wherein the request for statistics includes a list of the selected ones of the plurality of VDCs and wherein the appliance is connected to the first VDC via a management link; and receiving at the appliance the requested statistics associated with the selected ones of the plurality of VDCs. transmitting from an appliance connected to a first virtual device context, VDC, (104(a)) instantiated on a network device a request for statistics associated with selected ones of a plurality of VDCs (104(a), 104(b), 104(c), 104(d)) implemented on the network device, wherein the plurality of VDCs includes the first VDC, wherein the selected ones of the plurality of VDCs comprise at least two of the plurality of VDCs, wherein the request for statistics includes a list of the selected ones of the plurality of VDCs and wherein the appliance is connected to the first VDC via a management link; and receiving at the appliance the requested statistics associated with the selected ones of the plurality of VDCs.
An apparatus for debris collection comprising: a debris storage housing ; a velocity tube located within the debris storage housing ; a storage space radially formed between the velocity tube and the debris storage housing ; a hole formed through a side of the velocity tube , wherein the hole is in fluid communication with an inner flow path of the velocity tube in a first axial direction; and a deflector located on an exterior side of the velocity tube adjacent the hole in the storage space and radially positioned between the hole and the debris storage housing to prevent a flow through the storage space in a second axial direction from entering into the inner flow path, wherein the second axial direction is opposite to the first axial direction, and wherein the deflector encircles the hole . a debris storage housing ; a velocity tube located within the debris storage housing ; a storage space radially formed between the velocity tube and the debris storage housing ; a hole formed through a side of the velocity tube , wherein the hole is in fluid communication with an inner flow path of the velocity tube in a first axial direction; and a deflector located on an exterior side of the velocity tube adjacent the hole in the storage space and radially positioned between the hole and the debris storage housing to prevent a flow through the storage space in a second axial direction from entering into the inner flow path, wherein the second axial direction is opposite to the first axial direction, and wherein the deflector encircles the hole .
A method for video decoding, comprising: decoding (S1110) prediction information of a chroma coding unit in a segment of a current picture from a coded video bitstream, the segment being a slice, a tile or a group of tiles, and the segment lacking a temporal reference picture and having separate coding tree structures for luma and chroma components; detecting (S1120) a prediction mode flag associated with the chroma coding unit from the coded video bitstream; and determining (S1130) , based on the prediction mode flag, a prediction mode to be an intra block copy mode for the chroma coding unit, characterized by detecting an omission of a block vector for the chroma coding unit by the coded video bitstream; in response to (i) the detection of the omission of the block vector and (ii) the determination of the intra block copy mode for the chroma coding unit, determining a prediction mode of a predetermined set of luma blocks as the intra block copy mode; and reconstructing (S1140) at least one sample of the chroma coding unit according to the determined prediction mode. decoding (S1110) prediction information of a chroma coding unit in a segment of a current picture from a coded video bitstream, the segment being a slice, a tile or a group of tiles, and the segment lacking a temporal reference picture and having separate coding tree structures for luma and chroma components; detecting (S1120) a prediction mode flag associated with the chroma coding unit from the coded video bitstream; and determining (S1130) , based on the prediction mode flag, a prediction mode to be an intra block copy mode for the chroma coding unit, characterized by detecting an omission of a block vector for the chroma coding unit by the coded video bitstream; in response to (i) the detection of the omission of the block vector and (ii) the determination of the intra block copy mode for the chroma coding unit, determining a prediction mode of a predetermined set of luma blocks as the intra block copy mode; and reconstructing (S1140) at least one sample of the chroma coding unit according to the determined prediction mode.
An oriented silicon steel product with low iron loss for a low-noise transformer, comprising: a silicon steel substrate, a magnesium silicate bottom layer formed on a surface of the silicon steel substrate, and an insulation coating applied on the magnesium silicate bottom layer, wherein the magnesium silicate bottom layer has a thickness of 0.5-3 μm and a visible light normal reflectivity R of 40-60%, and wherein the silicon steel substrate comprises the following chemical elements by mass percentages: C: 0.035-0.120%, Si: 2.5-4.5%, Mn: 0.05-0.20%, S: 0.005-0.012%, Als: 0.015-0.035%, N: 0.004-0.009%, Cu: 0.01-0.29%, Sn: 0.01-0.20%, Nb: 0.05-0.10%, the balance is Fe and other unavoidable impurities.
A redox flow battery comprising at least one electrochemical cell in fluid communication with a balancing cell, said balancing cell comprising: a first half-cell chamber and a second half-cell chamber separated by a membrane, wherein the first half-cell chamber comprises a first electrode in contact with a first aqueous electrolyte of the redox flow battery; and wherein the second half-cell chamber comprises a second electrode in contact with a second aqueous electrolyte, said second electrode comprising a catalyst for the generation of O 2 ; and wherein the second aqueous electrolyte has a pH in a range of from 8 to 14. a first half-cell chamber and a second half-cell chamber separated by a membrane, wherein the first half-cell chamber comprises a first electrode in contact with a first aqueous electrolyte of the redox flow battery; and wherein the second half-cell chamber comprises a second electrode in contact with a second aqueous electrolyte, said second electrode comprising a catalyst for the generation of O 2 ; and wherein the first half-cell chamber comprises a first electrode in contact with a first aqueous electrolyte of the redox flow battery; and wherein the second half-cell chamber comprises a second electrode in contact with a second aqueous electrolyte, said second electrode comprising a catalyst for the generation of O 2 ; and wherein the second aqueous electrolyte has a pH in a range of from 8 to 14.
An accumulator comprising: a vessel configured to separate a fluid into gas and liquid phases in an interior of the vessel ; a plurality of pipes configured to extract the gas phase inside the vessel to the outside of the vessel ; and a plurality of holding portions configured to hold together the plurality of pipes extending in parallel inside the vessel , wherein the holding portions are provided in at least two different locations in a vertical direction, characterised in that the holding portions are separated from the vessel , and hold together respective sections of the plurality of pipes inside the vessel , and wherein the holding portions are disposed at a first height (H1), which corresponds to a position of a first node (B1) of a tertiary mode of vibrations of the pipes , and a second height (H2), which corresponds to a position of a node (B) of a secondary mode of the vibrations of the pipes and to a position of a second node (B2) of the tertiary mode. a vessel configured to separate a fluid into gas and liquid phases in an interior of the vessel ; a plurality of pipes configured to extract the gas phase inside the vessel to the outside of the vessel ; and a plurality of holding portions configured to hold together the plurality of pipes extending in parallel inside the vessel , wherein the holding portions are provided in at least two different locations in a vertical direction, characterised in that the holding portions are separated from the vessel , and hold together respective sections of the plurality of pipes inside the vessel , and wherein the holding portions are disposed at a first height (H1), which corresponds to a position of a first node (B1) of a tertiary mode of vibrations of the pipes , and a second height (H2), which corresponds to a position of a node (B) of a secondary mode of the vibrations of the pipes and to a position of a second node (B2) of the tertiary mode.
A flexible panel for an architectural feature, the flexible panel comprising: a front vertical support member having a height and width; a rear vertical support member having a height and a width, the rear vertical support member substantially parallel to the front vertical support member and operably coupled and laterally moveable relative to the front vertical support member ; and a plurality of generally horizontal vanes extending between the front and rear vertical support members : wherein both the front and rear support members control the movement and angular orientation of the vanes , the flexible panel being characterized in that at least one of the front vertical support member and the rear vertical support member has an openness factor of about sixty-five percent (65%) or greater. a front vertical support member having a height and width; a rear vertical support member having a height and a width, the rear vertical support member substantially parallel to the front vertical support member and operably coupled and laterally moveable relative to the front vertical support member ; and a plurality of generally horizontal vanes extending between the front and rear vertical support members : wherein both the front and rear support members control the movement and angular orientation of the vanes , the flexible panel being characterized in that at least one of the front vertical support member and the rear vertical support member has an openness factor of about sixty-five percent (65%) or greater. wherein both the front and rear support members control the movement and angular orientation of the vanes , the flexible panel being characterized in that at least one of the front vertical support member and the rear vertical support member has an openness factor of about sixty-five percent (65%) or greater.
A heating-type flavor inhaler , comprising: a casing having a mouthpiece opening and being cylindrical in overall shape; a flavor generating source provided in the casing ; and a heater , provided in the casing , for electrically heating the flavor generating source, wherein a bumpy pattern (BP) that is made of metal and facilitates heat dissipation is provided on an outer circumferential surface of at least a position of the casing at which the heater is arranged, wherein a heat insulating material is provided on a top portion of each of the protrusions in the bumpy pattern (BP). a casing having a mouthpiece opening and being cylindrical in overall shape; a flavor generating source provided in the casing ; and a heater , provided in the casing , for electrically heating the flavor generating source, wherein a bumpy pattern (BP) that is made of metal and facilitates heat dissipation is provided on an outer circumferential surface of at least a position of the casing at which the heater is arranged,
A fluid monitoring assembly for measuring the flow rate of a fluid comprising: a flexible conduit comprising one of silicone, thermoplastic elastomer, or thermoplastic rubber and having a wall that defines a lumen through which the fluid passes; a housing having first and second rigid housing portions connected to one another at a hinge , the first and second rigid housing portions each defining respective semi-annular recessed interior portions that contain the flexible conduit therein, wherein an exterior surface of the flexible conduit directly contacts first and second rigid housing portions along the semi-annular recessed interior portions ; and one or more transducer/receiver pairs embedded directly within first and second rigid housing portions ; characterized in that the one or more transducer/receiver pairs are located on opposing sides of the flexible conduit . a flexible conduit comprising one of silicone, thermoplastic elastomer, or thermoplastic rubber and having a wall that defines a lumen through which the fluid passes; a housing having first and second rigid housing portions connected to one another at a hinge , the first and second rigid housing portions each defining respective semi-annular recessed interior portions that contain the flexible conduit therein, wherein an exterior surface of the flexible conduit directly contacts first and second rigid housing portions along the semi-annular recessed interior portions ; and one or more transducer/receiver pairs embedded directly within first and second rigid housing portions ; characterized in that the one or more transducer/receiver pairs are located on opposing sides of the flexible conduit .
An expandable vinyl aromatic polymer composition comprising: a) from 67% to 88% by weight of a vinyl aromatic polymer (a); b) from 3% to 8% by weight of an expansion agent (b); c) from 9 to 25% by weight of a vinyl aromatic copolymer (c) containing as dispersed phase from 3 to 9% by weight of a rubbery component; with the condition that the sum of (a), (b) and (c) is 100% by weight. a) from 67% to 88% by weight of a vinyl aromatic polymer (a); b) from 3% to 8% by weight of an expansion agent (b); c) from 9 to 25% by weight of a vinyl aromatic copolymer (c) containing as dispersed phase from 3 to 9% by weight of a rubbery component;
A computer-implemented method for determining the presence of a spectral target component in a sample spectrum (S) of a mixture of components, said method comprising: performing a regression that includes a target spectrum (T) and the spectra (K') of one or more known other components, present in the sample spectrum (S) of the mixture, the target spectrum (T) being the spectrum of the target component, so that S = T ∗ c 0 + K' ∗ c' + R , where c 0 is a scalar coefficient, c' is a matrix of coefficients, and R is a residual calculating an extracted spectrum E = S - K' ∗ c', where said extracted spectrum (E) is the residual in the case where c 0 is set to zero; and comparing said extracted spectrum (E) to said target spectrum (T) using a comparison metric to determine the presence of the target component. performing a regression that includes a target spectrum (T) and the spectra (K') of one or more known other components, present in the sample spectrum (S) of the mixture, the target spectrum (T) being the spectrum of the target component, so that S = T ∗ c 0 + K' ∗ c' + R , where c 0 is a scalar coefficient, c' is a matrix of coefficients, and R is a residual calculating an extracted spectrum E = S - K' ∗ c', where said extracted spectrum (E) is the residual in the case where c 0 is set to zero; and comparing said extracted spectrum (E) to said target spectrum (T) using a comparison metric to determine the presence of the target component.
A method of producing a porous quartz glass preform having a weight of 35 kg or more, said method comprising depositing glass fine particles on a rotating seed rod to produce a porous quartz glass preform, at least a surface of a tip end portion of a deposition portion of the seed rod on which the glass fine particles are to be deposited being subjected to roughening treatment , wherein a surface of the seed rod subjected to the roughening treatment has a surface roughness Rz, measured with a surface roughness meter based on JIS B 0601:2001, of 35 μm or more, and wherein a surface of the seed rod subjected to the roughening treatment has irregularities having a pitch of 1 mm or less and a depth of 0.5 mm or more and 1.5 mm or less.
A method for wireless communications by user equipment, UE, comprising: identifying a level of coverage enhancement, CE, for the UE to communicate on at least one narrowband region within a wider system bandwidth in which the UE communicates with a base station, BS, wherein the narrowband region only covers less than the total number of resource blocks available in the system bandwidth; and taking one or more actions to alter one or more procedures related to mobility of the UE , based on the level of CE, wherein the one or more actions comprise taking action to cause a radio resource control, RRC, Connection Release timer to be adjusted based on the level of CE. identifying a level of coverage enhancement, CE, for the UE to communicate on at least one narrowband region within a wider system bandwidth in which the UE communicates with a base station, BS, wherein the narrowband region only covers less than the total number of resource blocks available in the system bandwidth; and taking one or more actions to alter one or more procedures related to mobility of the UE , based on the level of CE, wherein the one or more actions comprise taking action to cause a radio resource control, RRC, Connection Release timer to be adjusted based on the level of CE.