mhurhangee/patent-ind-claim-en huggingface dataset:
Liquid-phase method for depositing metal layers in holes of an electronic module placed in a hermetic chamber , from a chemical liquid having metal compounds intended to form a metal layer, characterized in that the holes have a depth P and a diameter D such that D>80 μm and P/D > 10, and in that the method has at least one cycle (Cyc) having the following substeps: - M1) Bringing the chamber to a preset pressure P0 and filling the chamber with the liquid, - M2) Degassing the holes by bringing the chamber to a low pressure P1, with P1<P0, - M3) Returning the chamber to the pressure P0 and filling the chamber with the liquid, - M4) Depositing, in the holes, a metal layer issued from the liquid, - M5) Emptying the liquid from the chamber, - M6) Explosively evaporating the liquid remaining in the holes by bringing the chamber to a low pressure P2, with P2<P1<P0, reiterating the cycle (Cyc) having the substeps M1 to M6 at least once to obtain one new metal layer through iteration. - M1) Bringing the chamber to a preset pressure P0 and filling the chamber with the liquid, - M2) Degassing the holes by bringing the chamber to a low pressure P1, with P1<P0, - M3) Returning the chamber to the pressure P0 and filling the chamber with the liquid, - M4) Depositing, in the holes, a metal layer issued from the liquid, - M5) Emptying the liquid from the chamber, - M6) Explosively evaporating the liquid remaining in the holes by bringing the chamber to a low pressure P2, with P2<P1<P0,
A non-medical method for promoting improved eating behaviour in an infant, said method comprising feeding said infant an infant formula or follow on formula comprising lipid, protein and digestible carbohydrates, wherein the lipid is in the form of lipid globules, and a. the lipid globules have a mode diameter based on volume of at least 1 μm and/or at least 45 vol.% of the lipid globules has a diameter of 2 to 12 μm, and b. the lipid comprises at least 0.5 wt.% phospholipid based on total lipid and the lipid globules have a coating comprising phospholipid, wherein the improved eating behaviour is selected from the group consisting of a decreased food responsiveness and a decreased general appetite as determined using the Baby Eating Behaviour Questionnaire (BEBQ) according to Llewellyn et al., 2011, Appetite, 57:388-96, wherein the lipid contains at least 10 wt.% palmitic acid based on total fatty acids, and at least 15 wt.% of palmitic acid, based on total palmitic acid, is located at the sn-2 position of a triglyceride, wherein the infant formula or follow on formula is not human milk and wherein the infant formula or follow on formula is used at least during the first 2 months of life and is administered to an infant with an age below 6 months; and wherein the improved eating behaviour is compared to the eating behaviour in infants fed infant formula or follow on formula that comprises vegetable fat that is present in the form of lipid globules with a mode diameter, based on volume, of about 0.5 μm, and wherein the lipid globules do not have a coating comprising phospholipid. a. the lipid globules have a mode diameter based on volume of at least 1 μm and/or at least 45 vol.% of the lipid globules has a diameter of 2 to 12 μm, and b. the lipid comprises at least 0.5 wt.% phospholipid based on total lipid and the lipid globules have a coating comprising phospholipid,
A bone anchoring device including an anchoring element , the anchoring element comprising a shank for anchoring in bone, the shank comprising a first end and an opposite second end , and a head , the head having an exterior surface with a spherically-shaped section; wherein the shank and the head are separate parts configured to be connected to each other; and wherein the head comprises a first end including a drive structure for engagement with a drive tool, characterised in that the shank comprises an engagement portion at the first end for engaging the head and wherein the engagement portion is configured to be engaged by a drive tool; and the head comprises an opposite second end comprising a counterpart engagement portion for cooperating with the engagement portion of the shank. an anchoring element , the anchoring element comprising a shank for anchoring in bone, the shank comprising a first end and an opposite second end , and a head , the head having an exterior surface with a spherically-shaped section; wherein the shank and the head are separate parts configured to be connected to each other; and wherein the head comprises a first end including a drive structure for engagement with a drive tool, characterised in that the shank comprises an engagement portion at the first end for engaging the head and wherein the engagement portion is configured to be engaged by a drive tool; and the head comprises an opposite second end comprising a counterpart engagement portion for cooperating with the engagement portion of the shank.
Polymer composition comprising a) 50 to 100 phr of one or more branched thermoplastic elastomers each comprising an unsaturated elastomer block and at least three thermoplastic styrene blocks, the thermoplastic styrene blocks of each branched thermoplastic elastomer representing from 15% to 50%, by weight of the weight of each branched thermoplastic elastomer, b) 10 to 100 phr of one or more thermoplastic styrene polymers having a weight-average molecular mass of between 25 000 and 300 000 g/mol, preferably between 50 000 and 200 000 g/mol. a) 50 to 100 phr of one or more branched thermoplastic elastomers each comprising an unsaturated elastomer block and at least three thermoplastic styrene blocks, the thermoplastic styrene blocks of each branched thermoplastic elastomer representing from 15% to 50%, by weight of the weight of each branched thermoplastic elastomer, b) 10 to 100 phr of one or more thermoplastic styrene polymers having a weight-average molecular mass of between 25 000 and 300 000 g/mol, preferably between 50 000 and 200 000 g/mol.
A cooking oven , in particular a domestic cooking oven , comprising an oven cavity , wherein - the oven cavity comprises a cavity wall , wherein an inner space of the oven cavity is enclosed by said cavity wall , and - the oven cavity comprises at least one cavity component , said cavity component being a heating element, for example an electric heating element or a gas burner, a side grid for bearing a food stuff carrier , an oven cavity lamp and/or a fan cover for a heating fan , that is arranged inside the oven cavity at the cavity wall , characterized in that the cavity wall comprises a section at which at least one of said cavity component is arranged, wherein at least said section of the cavity wall has insufficient mechanical strength to bear said at least one cavity component , so that said section of the cavity wall cannot bear the cavity component , and wherein the cooking oven comprises a bearing structure that is arranged outside of the cavity wall , wherein said at least one cavity component that is arranged inside the oven cavity at said section of the cavity wall having insufficient mechanical strength is connected or connectable to said bearing structure , and wherein said section of the cavity wall with insufficient mechanical strength comprises at least one hole for connecting said at least one cavity component that is arranged at said bearing structure . - the oven cavity comprises a cavity wall , wherein an inner space of the oven cavity is enclosed by said cavity wall , and - the oven cavity comprises at least one cavity component , said cavity component being a heating element, for example an electric heating element or a gas burner, a side grid for bearing a food stuff carrier , an oven cavity lamp and/or a fan cover for a heating fan , that is arranged inside the oven cavity at the cavity wall ,
Communication system for a tactical air defence system , comprising: a communication base station , which can be coupled to a command post of the tactical air defence system via a wired data network connection (E); one or more edge gateways , which are in a bidirectional communicative radio connection with the communication base station and which are configured to exchange data with the communication base station in accordance with a joint communication protocol; and one or more peripheral adapters , which can be coupled each to one of the one or more edge gateways via wired data network connections (E), and which are configured for data-linking a peripheral element to the tactical air defence system ; wherein the one or more peripheral adapters each have a core interface and a peripheral interface , which are configured to convert data, which are exchanged between an edge gateway and a peripheral element , in terms of data format and communication protocol; wherein the communication base station implements a centralised, deterministic channel access method for forming the bidirectional communicative radio connection to the one or more edge gateways ; and wherein the communication base station is further configured to perform transport prioritisation between the one or more edge gateways and the communication base station . a communication base station , which can be coupled to a command post of the tactical air defence system via a wired data network connection (E); one or more edge gateways , which are in a bidirectional communicative radio connection with the communication base station and which are configured to exchange data with the communication base station in accordance with a joint communication protocol; and one or more peripheral adapters , which can be coupled each to one of the one or more edge gateways via wired data network connections (E), and which are configured for data-linking a peripheral element to the tactical air defence system ; wherein the one or more peripheral adapters each have a core interface and a peripheral interface , which are configured to convert data, which are exchanged between an edge gateway and a peripheral element , in terms of data format and communication protocol; wherein the communication base station implements a centralised, deterministic channel access method for forming the bidirectional communicative radio connection to the one or more edge gateways ; and wherein the communication base station is further configured to perform transport prioritisation between the one or more edge gateways and the communication base station .
An apparatus comprising: a receiver circuit configured to: in response to a determination that the receiver circuit is in a high latency processing mode, transmit a hint signal to a transmitter circuit , the hint signal to indicate to the transmitter circuit that the receiver circuit is operating in the high latency processing mode; receive a response message from the transmitter circuit ; process data units received from the transmitter circuit using the response message to complete work pending at the receiver circuit ; and switch the receiver circuit from the high latency processing mode to a low latency processing mode, wherein the receiver circuit is further configured to: identify a number of data units received from the transmitter circuit since a previous hint signal was transmitted by the receiver circuit to the transmitter circuit ; compare the number of data units to a threshold value; and transmit the hint signal in response to a determination that the number of data units exceeds the threshold value. a receiver circuit configured to: in response to a determination that the receiver circuit is in a high latency processing mode, transmit a hint signal to a transmitter circuit , the hint signal to indicate to the transmitter circuit that the receiver circuit is operating in the high latency processing mode; receive a response message from the transmitter circuit ; process data units received from the transmitter circuit using the response message to complete work pending at the receiver circuit ; and switch the receiver circuit from the high latency processing mode to a low latency processing mode, in response to a determination that the receiver circuit is in a high latency processing mode, transmit a hint signal to a transmitter circuit , the hint signal to indicate to the transmitter circuit that the receiver circuit is operating in the high latency processing mode; receive a response message from the transmitter circuit ; process data units received from the transmitter circuit using the response message to complete work pending at the receiver circuit ; and switch the receiver circuit from the high latency processing mode to a low latency processing mode, wherein the receiver circuit is further configured to: identify a number of data units received from the transmitter circuit since a previous hint signal was transmitted by the receiver circuit to the transmitter circuit ; compare the number of data units to a threshold value; and transmit the hint signal in response to a determination that the number of data units exceeds the threshold value. identify a number of data units received from the transmitter circuit since a previous hint signal was transmitted by the receiver circuit to the transmitter circuit ; compare the number of data units to a threshold value; and transmit the hint signal in response to a determination that the number of data units exceeds the threshold value.
A multiaxial fabric resin base material comprising a multiaxial fabric laminate impregnated with a thermosetting resin (B), the multiaxial fabric base material laminate comprising fiber bundle sheets layered at different angles, the fiber bundle sheets comprising unidirectionally aligned fiber bundles stitched with stitching yarns composed of a thermoplastic resin (A), the multiaxial fabric base material laminate being penetrated in the thickness direction by other bodies of the stitching yarns, and being stitched with the other bodies of the stitching yarns such that the yarns reciprocate at predetermined intervals along the longitudinal direction, the thermoplastic resin (A) having a softening point, the softening point being higher than the resin impregnation temperature of the thermosetting resin (B), characterized in that the thermoplastic resin (A) is composed of a thermoplastic polyester resin composition (C) having a carboxyl group concentration of 0 to 20 eq/t. the multiaxial fabric base material laminate comprising fiber bundle sheets layered at different angles, the fiber bundle sheets comprising unidirectionally aligned fiber bundles stitched with stitching yarns composed of a thermoplastic resin (A), the multiaxial fabric base material laminate being penetrated in the thickness direction by other bodies of the stitching yarns, and being stitched with the other bodies of the stitching yarns such that the yarns reciprocate at predetermined intervals along the longitudinal direction, the thermoplastic resin (A) having a softening point, the softening point being higher than the resin impregnation temperature of the thermosetting resin (B), characterized in that the thermoplastic resin (A) is composed of a thermoplastic polyester resin composition (C) having a carboxyl group concentration of 0 to 20 eq/t.
An active irrigation system for controlling delivery of irrigation fluid to an ophthalmic surgical site, the active irrigation system comprising: a chamber having at least one fluid port (72; 74) for introducing an irrigation fluid (F) from a fluid source into the chamber and for delivering the irrigation fluid (F) to a surgical site; an irrigation pump configured to deliver irrigation fluid (F) from the fluid source to the chamber ; a variable pressure source in fluid communication with the chamber and configured to pressurize the chamber ; a pressure sensor in fluid communication with the chamber configured to monitor the pressure within the chamber ; a controller configured to adjust the pressure applied by the variable pressure source to maintain a desired irrigation pressure within the chamber , the controller operatively connected to the pressure sensor , wherein the chamber comprises a first compartment and a second compartment separated by an internal wall , the first compartment comprising the at least one fluid port (72; 74) and the second compartment comprising a fluid level indicator arranged to indicate the fluid level within the chamber during operation, and wherein the internal wall comprises at least one opening therein to allow the fluid level in the first compartment and the second compartment to equalize. a chamber having at least one fluid port (72; 74) for introducing an irrigation fluid (F) from a fluid source into the chamber and for delivering the irrigation fluid (F) to a surgical site; an irrigation pump configured to deliver irrigation fluid (F) from the fluid source to the chamber ; a variable pressure source in fluid communication with the chamber and configured to pressurize the chamber ; a pressure sensor in fluid communication with the chamber configured to monitor the pressure within the chamber ; a controller configured to adjust the pressure applied by the variable pressure source to maintain a desired irrigation pressure within the chamber , the controller operatively connected to the pressure sensor , wherein the chamber comprises a first compartment and a second compartment separated by an internal wall , the first compartment comprising the at least one fluid port (72; 74) and the second compartment comprising a fluid level indicator arranged to indicate the fluid level within the chamber during operation, and wherein the internal wall comprises at least one opening therein to allow the fluid level in the first compartment and the second compartment to equalize.
A process for producing a sub-assembly for use in an electro-optic display, the process comprising: providing a backplane comprising at least one electrode located in a first area of the backplane ; covering a second area of the backplane spaced from the electrode with a masking layer ; coating the backplane having the masking layer thereon with a layer of an electro-optic material , wherein the electro-optic material comprises an electrophoretic material; and removing the masking layer , and the electro-optic material thereon, from the backplane , thereby producing a sub-assembly comprising the backplane having its first area covered by the layer of electro-optic material but its second area free from the layer of electro-optic material . providing a backplane comprising at least one electrode located in a first area of the backplane ; covering a second area of the backplane spaced from the electrode with a masking layer ; coating the backplane having the masking layer thereon with a layer of an electro-optic material , wherein the electro-optic material comprises an electrophoretic material; and removing the masking layer , and the electro-optic material thereon, from the backplane , thereby producing a sub-assembly comprising the backplane having its first area covered by the layer of electro-optic material but its second area free from the layer of electro-optic material .
A method of wireless communication comprising: entering a sleep mode of a discontinuous reception, DRX, configuration; identifying that a scheduling request is to be transmitted to a base station ; receiving a directional synchronization subframe from the base station , wherein a resource associated with the scheduling request is identified based at least in part on the received directional synchronization subframe; identifying a time period associated with a random access channel, RACH; and transmitting the scheduling request to the base station during the time period associated with the RACH using the resources, which are identified based at least in part on the received directional synchronization subframe, wherein the scheduling request is transmitted during an entered active mode of the DRX configuration. entering a sleep mode of a discontinuous reception, DRX, configuration; identifying that a scheduling request is to be transmitted to a base station ; receiving a directional synchronization subframe from the base station , wherein a resource associated with the scheduling request is identified based at least in part on the received directional synchronization subframe; identifying a time period associated with a random access channel, RACH; and transmitting the scheduling request to the base station during the time period associated with the RACH using the resources, which are identified based at least in part on the received directional synchronization subframe, wherein the scheduling request is transmitted during an entered active mode of the DRX configuration.
A method for receiving data traffic using at least one or more carriers by a user equipment in a multi-carrier system, the method characterized by : receiving a first message instructing the user equipment to activate a secondary carrier from a base station through a primary carrier configured for the user equipment , the first message comprising carrier index information indicating a carrier index of the secondary carrier to be activated, operation information indicating an activation of the secondary carrier, and offset information indicating a timing point where the activation of the second carrier is performed activating the secondary carrier at the timing point based on the first message; receiving data traffic from the base station through the activated secondary carrier; receiving a second message instructing the user equipment to deactivate the activated secondary carrier from the base station ; and deactivating the activated secondary carrier according to the second message. receiving a first message instructing the user equipment to activate a secondary carrier from a base station through a primary carrier configured for the user equipment , the first message comprising carrier index information indicating a carrier index of the secondary carrier to be activated, operation information indicating an activation of the secondary carrier, and offset information indicating a timing point where the activation of the second carrier is performed activating the secondary carrier at the timing point based on the first message; receiving data traffic from the base station through the activated secondary carrier; receiving a second message instructing the user equipment to deactivate the activated secondary carrier from the base station ; and deactivating the activated secondary carrier according to the second message.