mhurhangee/ep-ind-claims huggingface dataset:
A shaving unit for a shaving apparatus, wherein the shaving unit comprises at least two cutting units (10a, 10b; 410a, 410b), and wherein each cutting unit comprises: - an external cutting member (12, 560) having a plurality of hair entry openings; - an internal cutting member (480a, 580) which is rotatable relative to the external cutting member about an axis of rotation (6a, 6b; 406a, 406b, 506); and - a housing (20a, 20b; 420a, 420b; 520) accommodating a hair collection chamber (27a, 27b; 427a; 527), the housing comprising a base portion and a cover portion which is releasably coupled to the base portion, wherein the external cutting member and the internal cutting member are held in an operating position in the cover portion by means of a holding component which is releasably coupled to the cover portion; - wherein said housing has a closed condition, wherein the cover portion holding the external cutting member and the internal cutting member is coupled to the base portion and closes the hair collection chamber, and an opened condition, wherein the cover portion is at least partially released and at least partially removed from the base portion so that the hair collection chamber is accessible for a user; characterized in that the base portion of the housing (20a, 20b; 420a, 420b; 520) of each cutting unit (10a, 10b; 410a, 410b) comprises a supporting structure (519a, 519b, 519c, 519d), wherein in the closed position of the housing the external cutting member (12, 560) is supported by the supporting structure at least in an axial direction parallel to the axis of rotation (6a, 6b; 406a, 406b; 506). - an external cutting member (12, 560) having a plurality of hair entry openings; - an internal cutting member (480a, 580) which is rotatable relative to the external cutting member about an axis of rotation (6a, 6b; 406a, 406b, 506); and - a housing (20a, 20b; 420a, 420b; 520) accommodating a hair collection chamber (27a, 27b; 427a; 527), the housing comprising a base portion and a cover portion which is releasably coupled to the base portion, wherein the external cutting member and the internal cutting member are held in an operating position in the cover portion by means of a holding component which is releasably coupled to the cover portion; - wherein said housing has a closed condition, wherein the cover portion holding the external cutting member and the internal cutting member is coupled to the base portion and closes the hair collection chamber, and an opened condition, wherein the cover portion is at least partially released and at least partially removed from the base portion so that the hair collection chamber is accessible for a user;
A solid formulation comprising a liquid composition comprising a water-insoluble solid plant-protection product dispersed in or absorbed or adsorbed onto an organic or mineral matrix, characterized in that: - the plant-protection product is water-insoluble at 25°C, - the liquid composition comprises: - at least 5 parts by weight and preferably at least 50 parts by weight of the plant-protection product, - a solvent in which the plant-protection product is dissolved, and - 100 parts by weight of at least one amphiphilic compound, - the solvent, the amphiphilic compound and the proportions thereof being such that their mixture under the conditions of use, optionally in the presence of the organic matrix or of a binder and/or dispersant included in the mineral or organic matrix, is at least partially water-miscible, - and in that the solid formulation forms, after mixing with water, a dispersion in the water of nanoparticles comprising the plant-protection product. - the plant-protection product is water-insoluble at 25°C, - the liquid composition comprises: - at least 5 parts by weight and preferably at least 50 parts by weight of the plant-protection product, - a solvent in which the plant-protection product is dissolved, and - 100 parts by weight of at least one amphiphilic compound, - the solvent, the amphiphilic compound and the proportions thereof being such that their mixture under the conditions of use, optionally in the presence of the organic matrix or of a binder and/or dispersant included in the mineral or organic matrix, is at least partially water-miscible, - at least 5 parts by weight and preferably at least 50 parts by weight of the plant-protection product, - a solvent in which the plant-protection product is dissolved, and - 100 parts by weight of at least one amphiphilic compound, - the solvent, the amphiphilic compound and the proportions thereof being such that their mixture under the conditions of use, optionally in the presence of the organic matrix or of a binder and/or dispersant included in the mineral or organic matrix, is at least partially water-miscible, - and in that the solid formulation forms, after mixing with water, a dispersion in the water of nanoparticles comprising the plant-protection product.
A compound of formula or an N -oxide thereof, or a pharmaceutically acceptable salt thereof: wherein A represents oxetanyl or tetrahydropyranyl, either of which groups may be optionally substituted by one, two or three substituents independently selected from C 1-6 alkyl, oxo and imino; B represents C-R 2; D represents C-R 3; E represents C-R 4; X represents O or S; R 0 represents hydrogen or C l - 6 alkyl; R 2 represents hydrogen or halogen; R 3 represents hydrogen or halogen; R 4 represents hydrogen; R 5 represents C 3-9 cycloalkyl, which group may be optionally substituted by one, two or three substituents independently selected from halogen, cyano, C 1-6 alkyl, trifluoromethyl, phenyl, hydroxy, C 1-6 alkoxy and aminocarbonyl; and R 6 represents heteroaryl, which group may be optionally substituted by one, two or three substituents independently selected from C 1-6 alkyl. A represents oxetanyl or tetrahydropyranyl, either of which groups may be optionally substituted by one, two or three substituents independently selected from C 1-6 alkyl, oxo and imino; B represents C-R 2; D represents C-R 3; E represents C-R 4; X represents O or S; R 0 represents hydrogen or C l - 6 alkyl; R 2 represents hydrogen or halogen; R 3 represents hydrogen or halogen; R 4 represents hydrogen; R 5 represents C 3-9 cycloalkyl, which group may be optionally substituted by one, two or three substituents independently selected from halogen, cyano, C 1-6 alkyl, trifluoromethyl, phenyl, hydroxy, C 1-6 alkoxy and aminocarbonyl; and R 6 represents heteroaryl, which group may be optionally substituted by one, two or three substituents independently selected from C 1-6 alkyl.
A method of emulating the functions performed by a set-top box to display an enhanced video stream on a computer, said enhanced video stream including a combination of video content and interactive content, and said method comprising: generating a layout file that provides time based actions that are applied to said video content and said interactive content; applying a set of rules to said layout file that produce instructions that emulate the functionality of a set-top box when applied to a browser; loading the interactive content from the combined video and interactive contents (324;) examining (step 404) HTML code of said interactive content to select a color that is not being used by said interactive content; assigning said color as a transparent color (Trans C); examining (step 406) the HTML code of the interactive content to locate the position of a media object in the interactive content as height and width data; determining (step 408) whether the video content) is to be displayed in a background or in a window; setting (step 410) the background of the interactive content to transparent color (Trans C) if the video content is to be displayed in the background; setting (step 412) the window of the interactive content to transparent color (Trans C) if the video content is to be displayed in the window; positioning and sizing (step 414) the video content to match the area that is set to transparent color (Trans C); setting (step 416) a transparency function of the interactive content to transparent color (Trans C) so that the video content is displayed in those areas that have been set to transparent color (Trans C). generating a layout file that provides time based actions that are applied to said video content and said interactive content; applying a set of rules to said layout file that produce instructions that emulate the functionality of a set-top box when applied to a browser; loading the interactive content from the combined video and interactive contents (324;) examining (step 404) HTML code of said interactive content to select a color that is not being used by said interactive content; assigning said color as a transparent color (Trans C); examining (step 406) the HTML code of the interactive content to locate the position of a media object in the interactive content as height and width data; determining (step 408) whether the video content) is to be displayed in a background or in a window; setting (step 410) the background of the interactive content to transparent color (Trans C) if the video content is to be displayed in the background; setting (step 412) the window of the interactive content to transparent color (Trans C) if the video content is to be displayed in the window; positioning and sizing (step 414) the video content to match the area that is set to transparent color (Trans C); setting (step 416) a transparency function of the interactive content to transparent color (Trans C) so that the video content is displayed in those areas that have been set to transparent color (Trans C).
A compound according to Formula I: or a pharmaceutically acceptable salt, solvate, stereoisomer or tautomer thereof, wherein R 1 is hydrogen; R 2 is C 1 -C 6 alkyl. R 1 is hydrogen; R 2 is C 1 -C 6 alkyl.
A method of wireless ultra-reliable low-latency communication, URLLC, in a new radio, NR, communication system comprising: determining conditions for one or more served user equipments, UEs, indicating to enable transmission time interval, TTI, bundling of data transmissions; determining a bundle length (40; 600; 601; 602) for a data bundle of the data transmissions to meet a target block error rate, BLER of the one or more UEs based on a delay budget associated with a data packet; transmitting an enablement signal of TTI bundling of the data transmissions to the one or more UEs, wherein the enablement signal includes the bundle length (40; 600; 601; 602) for the data bundle of the data transmissions; and repeatedly transmitting the data packet of the data transmission to the one or more UEs, wherein a number of times the data packet is repeatedly transmitted in the data bundle corresponds to the bundle length (40; 600; 601; 602). determining conditions for one or more served user equipments, UEs, indicating to enable transmission time interval, TTI, bundling of data transmissions; determining a bundle length (40; 600; 601; 602) for a data bundle of the data transmissions to meet a target block error rate, BLER of the one or more UEs based on a delay budget associated with a data packet; transmitting an enablement signal of TTI bundling of the data transmissions to the one or more UEs, wherein the enablement signal includes the bundle length (40; 600; 601; 602) for the data bundle of the data transmissions; and repeatedly transmitting the data packet of the data transmission to the one or more UEs, wherein a number of times the data packet is repeatedly transmitted in the data bundle corresponds to the bundle length (40; 600; 601; 602).
A sampling component for a battery module, comprising: a busbar having a first surface and a second surface which are opposite to each other, the busbar comprising mounting slots formed by extending in a direction from the first surface to the second surface; a circuit board disposed on a side of the busbar; and a connecting sheet, comprising a first flat portion and a bent portion which are connected to each other, one end of the first flat portion being connected to the busbar while the other end thereof being connected to the circuit board, the bent portion being located in the mounting slots wherein a notch running through the first surface and the second surface is formed on a side edge of the busbar, and the bent portion is capable of being inserted into the mounting slots through the notch. a busbar having a first surface and a second surface which are opposite to each other, the busbar comprising mounting slots formed by extending in a direction from the first surface to the second surface; a circuit board disposed on a side of the busbar; and a connecting sheet, comprising a first flat portion and a bent portion which are connected to each other, one end of the first flat portion being connected to the busbar while the other end thereof being connected to the circuit board, the bent portion being located in the mounting slots wherein a notch running through the first surface and the second surface is formed on a side edge of the busbar, and the bent portion is capable of being inserted into the mounting slots through the notch.
A device for food and/or beverage temperature regulation, comprising: - a cooling unit for providing a cooling mode in which the food and/or beverage is cooled, - a heating unit for providing a heating mode in which the food and/or beverage is heated and for providing a pre-heating mode in which the food and/or the beverage is pre-heated, - a memory unit for storing behavioral pattern data of the recipient, - a prediction unit for predicting, using the behavioral pattern data, the future behavior of the recipient, and - a control unit for controlling the cooling unit and the heating unit, wherein the control unit is arranged for: - receiving at least one signal indicative of the current behavior of the recipient of the food and/or beverage, - detecting a change in said current behavior, - activating the cooling mode or the heating mode in response to said detecting, and - activating the pre-heating mode in response to the future behavior predicted by the prediction unit. - a cooling unit for providing a cooling mode in which the food and/or beverage is cooled, - a heating unit for providing a heating mode in which the food and/or beverage is heated and for providing a pre-heating mode in which the food and/or the beverage is pre-heated, - a memory unit for storing behavioral pattern data of the recipient, - a prediction unit for predicting, using the behavioral pattern data, the future behavior of the recipient, and - a control unit for controlling the cooling unit and the heating unit, wherein the control unit is arranged for: - receiving at least one signal indicative of the current behavior of the recipient of the food and/or beverage, - detecting a change in said current behavior, - activating the cooling mode or the heating mode in response to said detecting, and - activating the pre-heating mode in response to the future behavior predicted by the prediction unit.
A chlorinator mounted inline in a water purification system, comprising: a housing having an inlet end and an outlet end and an upper compartment having an electronics section; a controller unit contained within the electronics section, the controller unit being electrically coupled to a power source and an at least one electrolytic plate; and a heat sink member in thermal communication with the controller unit, wherein the heat sink member is separated from the water by a separation section, which is a concomitant wall of the electronics section and the housing, and wherein flow of the water in the water purification system cools the heat sink member and the controller unit. a housing having an inlet end and an outlet end and an upper compartment having an electronics section; a controller unit contained within the electronics section, the controller unit being electrically coupled to a power source and an at least one electrolytic plate; and a heat sink member in thermal communication with the controller unit, wherein the heat sink member is separated from the water by a separation section, which is a concomitant wall of the electronics section and the housing, and wherein flow of the water in the water purification system cools the heat sink member and the controller unit.
A fast charging method for a series battery pack, comprising: obtaining charge parameters of battery units in a series battery pack; determining, based on the charge parameters, whether there is a differentiated battery unit in the series battery pack, wherein the differentiated battery unit is a battery unit whose charge parameter is different from a charge parameter of the rest battery units in the series battery pack; and if there is a differentiated battery unit in the series battery pack, changing the battery units in the series battery pack to a parallel connection, and performing parallel charging on the battery units. obtaining charge parameters of battery units in a series battery pack; determining, based on the charge parameters, whether there is a differentiated battery unit in the series battery pack, wherein the differentiated battery unit is a battery unit whose charge parameter is different from a charge parameter of the rest battery units in the series battery pack; and if there is a differentiated battery unit in the series battery pack, changing the battery units in the series battery pack to a parallel connection, and performing parallel charging on the battery units.
An asynchronous circuit comprising a plurality of components connected by channels, each channel conveying a request signal and an acknowledgement signal, characterized in that it comprises: - an input channel (A req, A ack); - a divergence operator connecting the input channel to a plurality of intermediate channels (O1 req, O1 ack; O2 req, O2 ack); - a convergence operator gathering the intermediate channels in a single output channel; - a main sequencer comprising a plurality of sequentially-activated control channels (S1; S2), each intermediate channel being associated to a control channel; - a switch arranged in a request path of one of the intermediate channels, and connected to the last active control channel, whereby a transmission of the request signal (O2 req) of said intermediate channel to the output channel occurs last in the sequence; and - a memory circuit, arranged in each of the other intermediate channels (O1 req, O1 ack),, connected to the associated control channel and configured to transmit the request signal (O1 req) from the associated intermediate channel to the output channel; and - the memory circuit being further configured to modify an output state of the associated intermediate channel (O1 req, O1 ack), by means of the main sequencer, without requiring any state change of the input channel (A req, A ack). - an input channel (A req, A ack); - a divergence operator connecting the input channel to a plurality of intermediate channels (O1 req, O1 ack; O2 req, O2 ack); - a convergence operator gathering the intermediate channels in a single output channel; - a main sequencer comprising a plurality of sequentially-activated control channels (S1; S2), each intermediate channel being associated to a control channel; - a switch arranged in a request path of one of the intermediate channels, and connected to the last active control channel, whereby a transmission of the request signal (O2 req) of said intermediate channel to the output channel occurs last in the sequence; and - a memory circuit, arranged in each of the other intermediate channels (O1 req, O1 ack),, connected to the associated control channel and configured to transmit the request signal (O1 req) from the associated intermediate channel to the output channel; and - the memory circuit being further configured to modify an output state of the associated intermediate channel (O1 req, O1 ack), by means of the main sequencer, without requiring any state change of the input channel (A req, A ack).
Method for operating a water treatment system comprising a first container and at least one further container (1B, 1C), wherein the containers (1A, 1B, 1C) are passed through in parallel by one partial volume flow (5A, 5A', 5A", 5A"', 5B, 5B', 5B", 5B"', 5C, 5C', 5C", 5C"') in each case and all containers as a whole are passed through by an overall volume flow, the containers each being provided with a regenerative water treatment element of a basic capacity, the method comprising the following repetitive steps: - determining a residual capacity of the water treatment element in the first container and determining the instantaneous partial volume flow (5A, 5A', 5A", 5A"') through the first container, - determining a further residual capacity (2B, 2B', 2B", 2B"', 2C, 2C', 2C", 2C"') of the water treatment element in at least one of the further containers (1B, 1C) and/or determining the instantaneous partial volume flow (5B, 5B', 5B", 5B"', 5C, 5C', 5C", 5C"') through at least one of the further containers (1B, 1C), - determining a regeneration limit value for the first container; wherein a regenerative process of the water treatment element in the first container is initiated when the residual capacity of the water treatment element in the first container falls below the regeneration limit value, wherein the regeneration limit value is calculated in dependence on the instantaneous partial volume flows (5A, 5A', 5A", 5A"', 5B, 5B', 5B", 5B"', 5C, 5C', 5C", 5C"') through the first and the further container (1A, 1B, 1C) and/or on the further residual capacity (2B, 2B', 2B", 2B"', 2C, 2C', 2C", 2c"') of the water treatment element of the further container (1B, 1C), and wherein the function of the regeneration limit value decreases monotonically, preferably strictly monotonically in dependence on the instantaneous partial volume flows (5A, 5A', 5A", 5A'", 5B, 5B', 5B", 5B"', 5C, 5C', 5C", 5C"') and/or wherein the function of the regeneration limit value decreases monotonically, preferably strictly monotonically in dependence on the residual capacity (2B, 2B', 2B", 2B'", 2C, 2C', 2C", 2C"') of the water treatment elements of the further containers (1B, 1C). - determining a residual capacity of the water treatment element in the first container and determining the instantaneous partial volume flow (5A, 5A', 5A", 5A"') through the first container, - determining a further residual capacity (2B, 2B', 2B", 2B"', 2C, 2C', 2C", 2C"') of the water treatment element in at least one of the further containers (1B, 1C) and/or determining the instantaneous partial volume flow (5B, 5B', 5B", 5B"', 5C, 5C', 5C", 5C"') through at least one of the further containers (1B, 1C), - determining a regeneration limit value for the first container;