mhurhangee/patent-ind-claim-en huggingface dataset:
A parallel heat-pipes type heat sink, comprising: a base , having a bottom surface , a plurality of parallel heated areas concavely formed on the bottom surface , a protrusion disposed between any two heated areas and protruding in a direction towards the bottom surface , and a notch formed at any one section of each protrusion , each protrusion comprising a first top portion and a second top portion which have a height difference (H) therebetween, side surfaces of the first top portion and an upper surface of the second top portion , which are located between and connected to two upper edges of the adjacent heated areas , together form the notch ; and a plurality of heat pipes , embedded into the heated areas respectively in the lengthwise direction of each heat pipe , wherein each of the heat pipes has at least one deformation portion , the deformation portions of the heat pipes which are adjacent to each other are in contact with each other so as to fill the notches . a base , having a bottom surface , a plurality of parallel heated areas concavely formed on the bottom surface , a protrusion disposed between any two heated areas and protruding in a direction towards the bottom surface , and a notch formed at any one section of each protrusion , each protrusion comprising a first top portion and a second top portion which have a height difference (H) therebetween, side surfaces of the first top portion and an upper surface of the second top portion , which are located between and connected to two upper edges of the adjacent heated areas , together form the notch ; and a plurality of heat pipes , embedded into the heated areas respectively in the lengthwise direction of each heat pipe , wherein each of the heat pipes has at least one deformation portion , the deformation portions of the heat pipes which are adjacent to each other are in contact with each other so as to fill the notches .
A method for performing, by a first device, wireless communication, comprising: receiving (S2310), from a second device, a physical sidelink control channel, PSCCH; receiving (S1610, S1620, S2320), from the second device, location information of the second device, sidelink data and information on a target distance, via a physical sidelink shared channel, PSSCH, related to the PSCCH; obtaining a distance between the first device and the second device, based on the location information of the second device and location information of the first device; and determining (S2330) whether or not to transmit a hybrid automatic repeat request, HARQ, feedback for the sidelink data to the second device, based on (i) the distance between the first device and the second device, (ii) the information on the target distance, and (iii) whether or not the first device decodes the sidelink data. receiving (S2310), from a second device, a physical sidelink control channel, PSCCH; receiving (S1610, S1620, S2320), from the second device, location information of the second device, sidelink data and information on a target distance, via a physical sidelink shared channel, PSSCH, related to the PSCCH; obtaining a distance between the first device and the second device, based on the location information of the second device and location information of the first device; and determining (S2330) whether or not to transmit a hybrid automatic repeat request, HARQ, feedback for the sidelink data to the second device, based on (i) the distance between the first device and the second device, (ii) the information on the target distance, and (iii) whether or not the first device decodes the sidelink data.
Dye composition comprising: - one or more hydrophobic direct dyes with a logP of greater than or equal to 2, chosen from indigoid dyes, - one or more organic alkaline agents, and/or one or more mineral bases chosen from carbonates, hydrogen carbonates, sodium hydroxide and potassium hydroxide, and mixtures thereof, - one or more compounds (I) comprising in their structure a sequence: with n denoting an integer ranging from 0 to 4, and denoting a group: and - one or more organic compounds (II) with a Hansen solubility parameter δH of between 5 and 15 MPa 1/2 and with a molecular weight of less than 250 g/mol. - one or more hydrophobic direct dyes with a logP of greater than or equal to 2, chosen from indigoid dyes, - one or more organic alkaline agents, and/or one or more mineral bases chosen from carbonates, hydrogen carbonates, sodium hydroxide and potassium hydroxide, and mixtures thereof, - one or more compounds (I) comprising in their structure a sequence: with n denoting an integer ranging from 0 to 4, and denoting a group: and - one or more organic compounds (II) with a Hansen solubility parameter δH of between 5 and 15 MPa 1/2 and with a molecular weight of less than 250 g/mol.
An optical module unit comprising: a plurality of optical modules , each having a plurality of light emitting elements , a mount in which the plurality of light emitting elements are arranged on one surface side, and a sub-passage formed in the mount ; and a manifold to which the plurality of optical modules are fixed and which has a first main passage to which one end of the sub-passage included in each of the optical modules is connected in parallel, wherein the mount has a plurality of element arrangement surfaces parallel to each other, wherein the plurality of element arrangement surfaces are formed in a stepped shape, wherein the plurality of light emitting elements are arranged on the respective element arrangement surfaces , and wherein the sub-passage is formed in its entirety to be inclined with respect to the element arrangement surfaces so that an average of shortest distances between the respective light emitting elements and the sub-passage is smaller than that in a case where the sub-passage is formed on a plane parallel to the element arrangement surfaces . a plurality of optical modules , each having a plurality of light emitting elements , a mount in which the plurality of light emitting elements are arranged on one surface side, and a sub-passage formed in the mount ; and a manifold to which the plurality of optical modules are fixed and which has a first main passage to which one end of the sub-passage included in each of the optical modules is connected in parallel, wherein the mount has a plurality of element arrangement surfaces parallel to each other, wherein the plurality of element arrangement surfaces are formed in a stepped shape, wherein the plurality of light emitting elements are arranged on the respective element arrangement surfaces , and wherein the sub-passage is formed in its entirety to be inclined with respect to the element arrangement surfaces so that an average of shortest distances between the respective light emitting elements and the sub-passage is smaller than that in a case where the sub-passage is formed on a plane parallel to the element arrangement surfaces .
A method, comprising: accumulating a history of access requests for a requested data, the history of access requests comprising respective contexts of requesting devices making the access requests; determining, based on an analysis of the respective context contained in each access request in the history of access requests, an access pattern for the requested data; receiving , after accumulating the history of access requests, a present access request from a requesting device to access requested data; determining a context for the requesting device sending the present access request; determining a deviation between the context for the requesting device sending the present access request and the access pattern; comparing, based on determining the deviation, the context of the present requesting device to contexts defined in the access pattern; sending , based on the comparing, a notification comprising the context for the requesting device to an authorization device associated with the requested data, wherein the authorization device receives an authorization response for the present access request from a user of the authorization device, and allowing access to the requested data based on the response to the notification that is received from the authorization device. accumulating a history of access requests for a requested data, the history of access requests comprising respective contexts of requesting devices making the access requests; determining, based on an analysis of the respective context contained in each access request in the history of access requests, an access pattern for the requested data; receiving , after accumulating the history of access requests, a present access request from a requesting device to access requested data; determining a context for the requesting device sending the present access request; determining a deviation between the context for the requesting device sending the present access request and the access pattern; comparing, based on determining the deviation, the context of the present requesting device to contexts defined in the access pattern; sending , based on the comparing, a notification comprising the context for the requesting device to an authorization device associated with the requested data, wherein the authorization device receives an authorization response for the present access request from a user of the authorization device, and allowing access to the requested data based on the response to the notification that is received from the authorization device.
A method for detecting hydrogen cyanide, HCN, the method comprising: receiving an ambient gas into a housing of a sensor , wherein the ambient gas comprises HCN gas and hydrogen sulfide, H 2 S, gas, and wherein the sensor comprises a porous working electrode and a counter electrode ; filtering the H 2 S gas from the ambient gas through a filter , wherein the filter is incorporated into the sensor and the filter comprises 3 grams of silver sulfate layered onto an 8 grams of polytetrafluoroethylene, PTFE, support material; applying a voltage potential between the counter electrode and the porous working electrode ; contacting the ambient gas with the porous working electrode ; allowing the ambient gas to diffuse through the porous working electrode to contact an electrolyte within the housing ; generating a current between the porous working electrode and the counter electrode in response to a reaction between the ambient gas and the electrolyte at a surface area of the porous working electrode ; and determining a concentration of the HCN in the ambient gas based on the current. receiving an ambient gas into a housing of a sensor , wherein the ambient gas comprises HCN gas and hydrogen sulfide, H 2 S, gas, and wherein the sensor comprises a porous working electrode and a counter electrode ; filtering the H 2 S gas from the ambient gas through a filter , wherein the filter is incorporated into the sensor and the filter comprises 3 grams of silver sulfate layered onto an 8 grams of polytetrafluoroethylene, PTFE, support material; applying a voltage potential between the counter electrode and the porous working electrode ; contacting the ambient gas with the porous working electrode ; allowing the ambient gas to diffuse through the porous working electrode to contact an electrolyte within the housing ; generating a current between the porous working electrode and the counter electrode in response to a reaction between the ambient gas and the electrolyte at a surface area of the porous working electrode ; and determining a concentration of the HCN in the ambient gas based on the current.
An inkjet head comprising: an ink chamber forming member (1;6) that has an ink inlet (11b;632) of an ink chamber (11;111;631) from which an ink can be discharged and an individual electrode (12;651) to which a voltage for providing the ink in the ink chamber (11;111;631) with discharge energy is to be applied arranged on one side thereof; and a substrate (3;7) provided on the one side of the ink chamber forming member (1;6), wherein a first through hole (31;71) that communicates with the ink inlet (11b;632) of the ink chamber forming member (1;6) to form an ink channel is provided in the substrate (3;7), and one end side of a wiring line (32;72) which is electrically connected with the individual electrode (12;651) is led out to a surface (3b;7b) of the substrate (3;7) on the opposite side of the ink chamber forming member (1;6) via the first through hole (31;71), wherein the one end side of the wiring line (32;72) is formed on a surface (3a;7a) of the substrate (3;7) on the ink chamber forming member side and is electrically connected with the individual electrode (12;651) on the surface (3a;7a), characterized in that the substrate (3;7) has a projecting portion that protrudes toward a lateral side of the ink chamber forming member (1;6) and is arranged to be electrically connected with an external wiring member , and wherein the other end side of the wiring line (32;72) extends to the projecting portion . an ink chamber forming member (1;6) that has an ink inlet (11b;632) of an ink chamber (11;111;631) from which an ink can be discharged and an individual electrode (12;651) to which a voltage for providing the ink in the ink chamber (11;111;631) with discharge energy is to be applied arranged on one side thereof; and a substrate (3;7) provided on the one side of the ink chamber forming member (1;6), wherein a first through hole (31;71) that communicates with the ink inlet (11b;632) of the ink chamber forming member (1;6) to form an ink channel is provided in the substrate (3;7), and one end side of a wiring line (32;72) which is electrically connected with the individual electrode (12;651) is led out to a surface (3b;7b) of the substrate (3;7) on the opposite side of the ink chamber forming member (1;6) via the first through hole (31;71), wherein the one end side of the wiring line (32;72) is formed on a surface (3a;7a) of the substrate (3;7) on the ink chamber forming member side and is electrically connected with the individual electrode (12;651) on the surface (3a;7a), characterized in that the substrate (3;7) has a projecting portion that protrudes toward a lateral side of the ink chamber forming member (1;6) and is arranged to be electrically connected with an external wiring member , and wherein the other end side of the wiring line (32;72) extends to the projecting portion .
A coating composition comprising a wax-modified flexible hyperbranched polyol, wherein the wax-modified flexible hyperbranched polyol is prepared by a process comprising: (a) reacting a polyol comprising at least three hydroxyl groups with (a') a C 8 - C 85 linear or branched unsubstituted carboxylic acid and optionally with (a") an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or an esterifiable derivative thereof, to form a hydroxyl-functional first intermediate product; (b) reacting the hydroxyl-functional first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the wax modified flexible hyperbranched polyol. (a) reacting a polyol comprising at least three hydroxyl groups with (a') a C 8 - C 85 linear or branched unsubstituted carboxylic acid and optionally with (a") an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or an esterifiable derivative thereof, to form a hydroxyl-functional first intermediate product; (b) reacting the hydroxyl-functional first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the wax modified flexible hyperbranched polyol.
A control method of an automatic working system , the automatic working system comprising a self-moving device , a positioning device, and a storage unit, wherein the self-moving device comprises a movement module and a task execution module; the positioning device is configured to detect a current position of the self-moving device; and the control method is characterised by comprising the following steps: storing (S300) a working area map in the storage unit; controlling (S301) to enter a map confirmation mode, and in the map confirmation mode implementing a map confirmation procedure comprising: monitoring (S305) the current position of the self-moving device, controlling the movement module based on the working area map to enable the self-moving device to move along a working area boundary; and receiving (S313) a confirmation signal from a user; and only after the confirmation signal from the user is received, completing the map confirmation procedure, controlling (S325) to enter a working mode; and in the working mode: monitoring the current position of the self-moving device, controlling (S327) the movement module to enable the self-moving device to move within a working area defined by the working area map, and controlling the task execution module to execute a working task. the self-moving device comprises a movement module and a task execution module; the positioning device is configured to detect a current position of the self-moving device; and the control method is characterised by comprising the following steps: storing (S300) a working area map in the storage unit; controlling (S301) to enter a map confirmation mode, and in the map confirmation mode implementing a map confirmation procedure comprising: monitoring (S305) the current position of the self-moving device, controlling the movement module based on the working area map to enable the self-moving device to move along a working area boundary; and receiving (S313) a confirmation signal from a user; and only after the confirmation signal from the user is received, completing the map confirmation procedure, controlling (S325) to enter a working mode; and in the working mode: monitoring the current position of the self-moving device, controlling (S327) the movement module to enable the self-moving device to move within a working area defined by the working area map, and controlling the task execution module to execute a working task. monitoring (S305) the current position of the self-moving device, controlling the movement module based on the working area map to enable the self-moving device to move along a working area boundary; and receiving (S313) a confirmation signal from a user; and only after the confirmation signal from the user is received, completing the map confirmation procedure, controlling (S325) to enter a working mode; and in the working mode: monitoring the current position of the self-moving device, controlling (S327) the movement module to enable the self-moving device to move within a working area defined by the working area map, and controlling the task execution module to execute a working task.
A fluidic mulch composition comprising: - a fibrous peat material in an amount of about 50 percent of the total volume occupied by the mulch composition, - biomass-derived pyrolysis oil in an amount ranging between 2 to 25 percent of the total volume occupied by the mulch composition, and - water, wherein biomass-derived pyrolysis oil is an unfractionated liquid product obtainable from biomass feedstock by pyrolysis, and wherein said mulch composition is configured to solidify, upon being distributed over a soil substrate, to form a uniform surface cover layer of a predetermined depth. - a fibrous peat material in an amount of about 50 percent of the total volume occupied by the mulch composition, - biomass-derived pyrolysis oil in an amount ranging between 2 to 25 percent of the total volume occupied by the mulch composition, and - water, wherein biomass-derived pyrolysis oil is an unfractionated liquid product obtainable from biomass feedstock by pyrolysis, and wherein said mulch composition is configured to solidify, upon being distributed over a soil substrate, to form a uniform surface cover layer of a predetermined depth.
An anchor device having a tubular body with a longitudinal axis (A), the tubular body being divided into a first body portion and a second body portion which are interconnected by means of a rigid connection so that movement between the first body portion and second body portion is substantially prevented, the anchor device further comprising an actuator having an actuation part which, by operation of the actuator, moves relative to the body, wherein the anchor device further comprises a first linkage set and second linkage set each of which includes at least one linkage , each linkage comprising a first , second and third link, the second link lying between the first , and third links, and being pivotally connected to both, characterised in that each linkage further comprises means to releasably pivotally connect the first link , to the first body portion , and means to releasably pivotally connect the third link to the actuation part , the first and third links of each linkage in the first set being shorter than the first and third links of each linkage in the second set, and the second link of each linkage in the first set being longer than the second link of each linkage in the second set .
Method for manufacturing a decorated timepiece component, including the following steps: • depositing a protective layer on a support ; • removing material, consisting in making an opening (4; 4A, 4B, 4C) through the protective layer ; the method comprising the following additional steps: • removing material, consisting in forming a cavity (5; 5A, 5B, 5C) in said support , the cavity (5; 5A, 5B, 5C) being positioned in line with at least part of the opening (4; 4A, 4B, 4C) through the protective layer ; • depositing material (6; 14) through said opening (4; 4A, 4B, 4C), consisting in depositing a decorative material in the cavity forming a recess; and • removing the protective layer ; and wherein the steps of removing material, consisting in making the opening (4; 4A, 4B, 4C) through the protective layer and the cavity (5; 5A, 5B, 5C), respectively, are carried out simultaneously or one straight after the another using femtosecond pulses. • depositing a protective layer on a support ; • removing material, consisting in making an opening (4; 4A, 4B, 4C) through the protective layer ; the method comprising the following additional steps: • removing material, consisting in forming a cavity (5; 5A, 5B, 5C) in said support , the cavity (5; 5A, 5B, 5C) being positioned in line with at least part of the opening (4; 4A, 4B, 4C) through the protective layer ; • depositing material (6; 14) through said opening (4; 4A, 4B, 4C), consisting in depositing a decorative material in the cavity forming a recess; and • removing the protective layer ; and wherein the steps of removing material, consisting in making the opening (4; 4A, 4B, 4C) through the protective layer and the cavity (5; 5A, 5B, 5C), respectively, are carried out simultaneously or one straight after the another using femtosecond pulses. • removing material, consisting in forming a cavity (5; 5A, 5B, 5C) in said support , the cavity (5; 5A, 5B, 5C) being positioned in line with at least part of the opening (4; 4A, 4B, 4C) through the protective layer ; • depositing material (6; 14) through said opening (4; 4A, 4B, 4C), consisting in depositing a decorative material in the cavity forming a recess; and • removing the protective layer ; and wherein the steps of removing material, consisting in making the opening (4; 4A, 4B, 4C) through the protective layer and the cavity (5; 5A, 5B, 5C), respectively, are carried out simultaneously or one straight after the another using femtosecond pulses.