mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing seaweed extract from Eucheuma seaweed comprising: (a) washing or rinsing dried Eucheuma seaweed with water; and then (b) soaking the Eucheuma seaweed with dilute alkaline-free potassium chloride salt solution at a concentration from 0.1 to 20 wt.% at 15°C to 30°C for 1 to 3 hours; (c) chopping the soaked Eucheuma seaweed to reduce the size; (d) sterilizing and deodorizing the resultant chopped Eucheuma seaweed for 30 to 45 minutes with a solution of sodium hypochlorite or hydrogen peroxide at a concentration of 50 to 300 ppm; (e) washing the sterilized and deodorized Eucheuma seaweed with water, and recycling the wash water from step (e) for use in washing in step (a); (f) drying the resultant washed Eucheuma seaweed using a mechanical dryer; (g) grinding the resultant dried Eucheuma seaweed into an alkali-free powder; (h) packaging the resultant alkali-free powder into bags. (a) washing or rinsing dried Eucheuma seaweed with water; and then (b) soaking the Eucheuma seaweed with dilute alkaline-free potassium chloride salt solution at a concentration from 0.1 to 20 wt.% at 15°C to 30°C for 1 to 3 hours; (c) chopping the soaked Eucheuma seaweed to reduce the size; (d) sterilizing and deodorizing the resultant chopped Eucheuma seaweed for 30 to 45 minutes with a solution of sodium hypochlorite or hydrogen peroxide at a concentration of 50 to 300 ppm; (e) washing the sterilized and deodorized Eucheuma seaweed with water, and recycling the wash water from step (e) for use in washing in step (a); (f) drying the resultant washed Eucheuma seaweed using a mechanical dryer; (g) grinding the resultant dried Eucheuma seaweed into an alkali-free powder; (h) packaging the resultant alkali-free powder into bags.
A crystalline form of a salt of 2-amino-3-methyl-N-(2-morpholinoethyl)-pentanamide, wherein the salt is a sulfonic acid addition salt, a carboxylic acid addition salt, or a polyhydroxy acid addition salt.
A substrate bonding method comprising the steps of: forming an insulating film for bonding including depositing an SiO 2 film made of TEOS by a CVD method on at least one of a first substrate and a second substrate ; bonding the first substrate and the second substrate with the insulating film for bonding being in contact with the first substrate and the second substrate ; the method characterised in comprising forming an electrode for bonding made of a plastically deformable metal on one of an electrode of the first substrate and an electrode of the second substrate , wherein the bonding step comprises the step of abutting the electrode for bonding against the electrode of the substrate on which the electrode for bonding is not formed and on which the electrode is surrounded by the insulating film for bonding , before the insulating film for bonding abuts against a surface of the substrate surrounding the electrode on which the insulating film for bonding is not formed, and then press-fitting to the electrode of the substrate on which the electrode for bonding is not formed. forming an insulating film for bonding including depositing an SiO 2 film made of TEOS by a CVD method on at least one of a first substrate and a second substrate ; bonding the first substrate and the second substrate with the insulating film for bonding being in contact with the first substrate and the second substrate ; the method characterised in comprising forming an electrode for bonding made of a plastically deformable metal on one of an electrode of the first substrate and an electrode of the second substrate ,
A collimating lens that is rotationally symmetric around an axis , comprising: a first body portion comprising an outer surface having at least one recess arranged to receive a plurality of light sources and an inner surface opposing the outer surface, said inner surface delimiting a cavity and tapering inwardly into the first body portion; a second body portion extending from the first body portion opposite said cavity and terminating in a light exit window , said second body portion having a further outer surface extending between the outer surface of the first body portion and the light exit window and expanding away from the first body portion; wherein the outer surface of the first body portion comprises: a first surface portion in between the at least one recess and the further outer surface arranged to reflect incident light from the at least one light source onto the further outer surface, wherein the further outer surface is arranged to reflect said light towards the light exit window ; and a second surface portion in between the at least one recess and the inner surface arranged to reflect incident light from the at least one light source towards the light exit window via the inner surface . a first body portion comprising an outer surface having at least one recess arranged to receive a plurality of light sources and an inner surface opposing the outer surface, said inner surface delimiting a cavity and tapering inwardly into the first body portion; a second body portion extending from the first body portion opposite said cavity and terminating in a light exit window , said second body portion having a further outer surface extending between the outer surface of the first body portion and the light exit window and expanding away from the first body portion; wherein the outer surface of the first body portion comprises: a first surface portion in between the at least one recess and the further outer surface arranged to reflect incident light from the at least one light source onto the further outer surface, wherein the further outer surface is arranged to reflect said light towards the light exit window ; and a second surface portion in between the at least one recess and the inner surface arranged to reflect incident light from the at least one light source towards the light exit window via the inner surface . a first surface portion in between the at least one recess and the further outer surface arranged to reflect incident light from the at least one light source onto the further outer surface, wherein the further outer surface is arranged to reflect said light towards the light exit window ; and a second surface portion in between the at least one recess and the inner surface arranged to reflect incident light from the at least one light source towards the light exit window via the inner surface .
A network device for Remote Direct Memory Access, RDMA, wherein the network device is configured to: generate an outgoing packet according to a QUIC request or event, and transmit the outgoing packet to another network device , wherein the outgoing packet is a Quick User datagram protocol Internet Connection, QUIC based, packet, which comprises a User Datagram Protocol, UDP, header , a QUIC header and a QUIC payload , wherein the UDP header of the outgoing packet comprises an indication that indicates that the QUIC payload of the outgoing packet comprises one or more RDMA transactions, wherein the QUIC payload of the outgoing packet comprises the one or more RDMA transactions, and wherein the outgoing packet has a version field indicating a version of the QUIC, wherein the version of the QUIC is a dedicated QUIC version number used to disable encryption. generate an outgoing packet according to a QUIC request or event, and transmit the outgoing packet to another network device , wherein the outgoing packet is a Quick User datagram protocol Internet Connection, QUIC based, packet, which comprises a User Datagram Protocol, UDP, header , a QUIC header and a QUIC payload , wherein the UDP header of the outgoing packet comprises an indication that indicates that the QUIC payload of the outgoing packet comprises one or more RDMA transactions, wherein the QUIC payload of the outgoing packet comprises the one or more RDMA transactions, and wherein the outgoing packet has a version field indicating a version of the QUIC, wherein the version of the QUIC is a dedicated QUIC version number used to disable encryption.
A method for additively manufacturing a composite part , the method comprising: applying a thermosetting resin to a non-resin component to create a continuous flexible line by pulling the non-resin component through a first resin-part applicator , in which a first quantity of a first part of the thermosetting resin is applied to the non-resin component , and by pulling the non-resin component through a second resin-part applicator , in which a second quantity of second part of the thermosetting resin is applied to at least a portion of the first quantity of the first part of the thermosetting resin , applied to the non-resin component ; routing the continuous flexible line into a delivery guide ; and depositing, via the delivery guide , a segment of the continuous flexible line along a print path . applying a thermosetting resin to a non-resin component to create a continuous flexible line by pulling the non-resin component through a first resin-part applicator , in which a first quantity of a first part of the thermosetting resin is applied to the non-resin component , and by pulling the non-resin component through a second resin-part applicator , in which a second quantity of second part of the thermosetting resin is applied to at least a portion of the first quantity of the first part of the thermosetting resin , applied to the non-resin component ; routing the continuous flexible line into a delivery guide ; and depositing, via the delivery guide , a segment of the continuous flexible line along a print path .
A half shell bearing (50; 80; 120) comprising a bearing shell (52; 82; 122) and a bearing cage (54; 84; 124), wherein the bearing shell (52; 82; 122) comprises a surface being designed as a rolling path (58; 88; 128) for the bearing cage (54; 84; 124); the bearing shell (52; 82; 122) comprises two shell walls (60, 61; 90, 91; 126, 127) on opposite sides of the bearing shell (52; 82; 122), a third side (63; 93; 134) with a retaining means (66, 67; 96, 97; 136, 137) for limiting a movement of the bearing cage (54; 84; 124), and a fourth side (64; 94; 135) opposite to the third side (63; 93; 134); the bearing cage (54; 84; 124) comprises cylindrical rolling elements (56; 86; 140, 141, 141') that roll on the rolling path (58; 88; 128), wherein the bearing cage (54; 84; 124) is movably arranged on the rolling path (58; 88; 128) within the shell walls (60, 61; 90, 91; 126, 127) of the bearing shell (52; 82; 122); and the bearing cage (54; 84; 124) comprises two corners (70, 71; 100, 101; 130, 131) at an end (74;104; 142) of the bearing cage (54; 84; 124) being directed to the third side (63; 93; 134) of the bearing shell (52; 82; 122); characterized in that the two corners (70, 71; 100, 101; 130, 131) of the bearing cage (54; 84; 124) are chamfered. the bearing shell (52; 82; 122) comprises a surface being designed as a rolling path (58; 88; 128) for the bearing cage (54; 84; 124); the bearing shell (52; 82; 122) comprises two shell walls (60, 61; 90, 91; 126, 127) on opposite sides of the bearing shell (52; 82; 122), a third side (63; 93; 134) with a retaining means (66, 67; 96, 97; 136, 137) for limiting a movement of the bearing cage (54; 84; 124), and a fourth side (64; 94; 135) opposite to the third side (63; 93; 134); the bearing cage (54; 84; 124) comprises cylindrical rolling elements (56; 86; 140, 141, 141') that roll on the rolling path (58; 88; 128), wherein the bearing cage (54; 84; 124) is movably arranged on the rolling path (58; 88; 128) within the shell walls (60, 61; 90, 91; 126, 127) of the bearing shell (52; 82; 122); and the bearing cage (54; 84; 124) comprises two corners (70, 71; 100, 101; 130, 131) at an end (74;104; 142) of the bearing cage (54; 84; 124) being directed to the third side (63; 93; 134) of the bearing shell (52; 82; 122); characterized in that the two corners (70, 71; 100, 101; 130, 131) of the bearing cage (54; 84; 124) are chamfered.
A combination of a first attachment and a second attachment constituting a working machine with each other, and an attachment connecting device for connecting the first attachment and the second attachment , comprising: a pair of first connected members ; a pair of second connected members , the second connected members facing the first connected members when the first attachment and the second attachment come into a connection state in which the second attachment is stacked on the first attachment ; and a pair of connecting members for connecting the first connected members and the second connected members with each other, characterized in that the first connected members are disposed on opposite first side surfaces of the first attachment in a width direction intersecting a vertical direction and a longitudinal direction of the second attachment and extend outward from the first side surfaces of the first attachment , the first side surfaces extending in the longitudinal direction of the first attachment , and the second connected members are disposed on opposite second side surfaces of the second attachment in a width direction intersecting a vertical direction and the longitudinal direction of the second attachment and extend outward from the second side surfaces of the second attachment , the second side surfaces extending in the longitudinal direction of the second attachment . a pair of first connected members ; a pair of second connected members , the second connected members facing the first connected members when the first attachment and the second attachment come into a connection state in which the second attachment is stacked on the first attachment ; and a pair of connecting members for connecting the first connected members and the second connected members with each other, characterized in that the first connected members are disposed on opposite first side surfaces of the first attachment in a width direction intersecting a vertical direction and a longitudinal direction of the second attachment and extend outward from the first side surfaces of the first attachment , the first side surfaces extending in the longitudinal direction of the first attachment , and the second connected members are disposed on opposite second side surfaces of the second attachment in a width direction intersecting a vertical direction and the longitudinal direction of the second attachment and extend outward from the second side surfaces of the second attachment , the second side surfaces extending in the longitudinal direction of the second attachment .
A metal-metal interdigitated photoconductive antenna that generates and/or detects terahertz waves, the photoconductive antenna comprising at least one substrate made of a compound semiconductor and interdigitated electrodes on the front face of the substrate , characterized in that : - it comprises at least one layer formed of a material reflective to terahertz waves, said layer extending below the front face of the substrate at a distance d = λ /2 where λ corresponds to the maximum frequency that needs to be emitted/detected; and - it comprises an interdigitated geometry on said front face of the substrate comprising : o a first metallization layer of 5nm Cr and 150 nm Au for the interdigitated electrodes , said interdigitated electrodes being equally spaced by a distance Δ<d/2, thereby forming gaps, said first metallization layer being made on said front surface of the substrate ; o a 500 nm-thick layer of SiO2 deposited over the first metallization layer; and o a second metallic layer composed of metallic fingers covering said gaps with a periodicity double that of the distance Δ. - it comprises at least one layer formed of a material reflective to terahertz waves, said layer extending below the front face of the substrate at a distance d = λ /2 where λ corresponds to the maximum frequency that needs to be emitted/detected; and - it comprises an interdigitated geometry on said front face of the substrate comprising : o a first metallization layer of 5nm Cr and 150 nm Au for the interdigitated electrodes , said interdigitated electrodes being equally spaced by a distance Δ<d/2, thereby forming gaps, said first metallization layer being made on said front surface of the substrate ; o a 500 nm-thick layer of SiO2 deposited over the first metallization layer; and o a second metallic layer composed of metallic fingers covering said gaps with a periodicity double that of the distance Δ. o a first metallization layer of 5nm Cr and 150 nm Au for the interdigitated electrodes , said interdigitated electrodes being equally spaced by a distance Δ<d/2, thereby forming gaps, said first metallization layer being made on said front surface of the substrate ; o a 500 nm-thick layer of SiO2 deposited over the first metallization layer; and o a second metallic layer composed of metallic fingers covering said gaps with a periodicity double that of the distance Δ.
A method for guiding positioning of a card to a target position relative to a device includes the steps of: detecting by a proximity sensor that the card is proximate to the device; responsive to the card being proximate to the device, the device capturing a series of images of a three-dimensional volume proximate to the device; processing the series of images to determine a position and a trajectory of the card within the three-dimensional volume proximate to the device; predicting a projected position of the card relative to the device based on the position of the card and the trajectory of the card; identifying one or more variances between the projected position and the target position including identifying at least one trajectory adjustment predicted to reduce the one or more variances and one or more prompts predicted to achieve the trajectory adjustments; displaying the one or more prompts on a display of the device; repeating the steps of capturing the series of images, determining the position and trajectory of the card, predicting the projected position of the card, identifying the one or more variances, the at least one trajectory adjustment and the one or more prompts and displaying the one or more prompts until the one or more variances are within a predetermined threshold; and triggering an event at the device to retrieve data from the card in response to the one or more variances being within the predetermined threshold. detecting by a proximity sensor that the card is proximate to the device; responsive to the card being proximate to the device, the device capturing a series of images of a three-dimensional volume proximate to the device; processing the series of images to determine a position and a trajectory of the card within the three-dimensional volume proximate to the device; predicting a projected position of the card relative to the device based on the position of the card and the trajectory of the card; identifying one or more variances between the projected position and the target position including identifying at least one trajectory adjustment predicted to reduce the one or more variances and one or more prompts predicted to achieve the trajectory adjustments; displaying the one or more prompts on a display of the device; repeating the steps of capturing the series of images, determining the position and trajectory of the card, predicting the projected position of the card, identifying the one or more variances, the at least one trajectory adjustment and the one or more prompts and displaying the one or more prompts until the one or more variances are within a predetermined threshold; and triggering an event at the device to retrieve data from the card in response to the one or more variances being within the predetermined threshold.
An unbalanced load manager for a three-phase induction motor or heater comprising: a plurality of current sensors (CT1; CT2; CT3) associated with the unbalanced load manager, connect with corresponding phases of a three-phase power system (L1; L2; L3) providing power to a three-phase motor or heater, each current sensor configured to provide a value representative of current flow it senses through each corresponding phase of the three-phase power system; a plurality of voltage taps associated with the unbalanced load manager, connect with the corresponding phases of the three-phase power system providing power to the three-phase motor or heater, with pairs of the voltage taps configured to provide line-to-line voltage (U12; U23; U31) between corresponding phases of the three-phase power system; a memory in the load manager, configured to store a thyristor or SCR firing calculation algorithm; and a processor in the load manager, coupled to the memory and the plurality of current sensors and voltage taps, characterized in that the processor is configured to synchronize firing from line-to-line signal to line-to-neutral signal, using a current presence transition from positive or negative to zero during a last previous half-period to dynamically measure phase shift and accordingly adjust firing synchronization, by detecting a transition from positive or negative to zero current, to measure the phase shift between line-to-line voltage and current. a plurality of current sensors (CT1; CT2; CT3) associated with the unbalanced load manager, connect with corresponding phases of a three-phase power system (L1; L2; L3) providing power to a three-phase motor or heater, each current sensor configured to provide a value representative of current flow it senses through each corresponding phase of the three-phase power system; a plurality of voltage taps associated with the unbalanced load manager, connect with the corresponding phases of the three-phase power system providing power to the three-phase motor or heater, with pairs of the voltage taps configured to provide line-to-line voltage (U12; U23; U31) between corresponding phases of the three-phase power system; a memory in the load manager, configured to store a thyristor or SCR firing calculation algorithm; and a processor in the load manager, coupled to the memory and the plurality of current sensors and voltage taps, characterized in that the processor is configured to synchronize firing from line-to-line signal to line-to-neutral signal, using a current presence transition from positive or negative to zero during a last previous half-period to dynamically measure phase shift and accordingly adjust firing synchronization, by detecting a transition from positive or negative to zero current, to measure the phase shift between line-to-line voltage and current.
A computer system comprising: a DRAM memory ; a reconfigurable logic device having a memory controller coupled to selected inputs and outputs of said DRAM memory; characterized in further comprising: a data maintenance block collocated with said DRAM memory and coupled to said reconfigurable logic device and self-refresh command inputs of said DRAM memory, said data maintenance block operative to provide stable input levels on said self-refresh command inputs while said reconfigurable logic device is reconfigured. a DRAM memory ; a reconfigurable logic device having a memory controller coupled to selected inputs and outputs of said DRAM memory; characterized in further comprising: a data maintenance block collocated with said DRAM memory and coupled to said reconfigurable logic device and self-refresh command inputs of said DRAM memory, said data maintenance block operative to provide stable input levels on said self-refresh command inputs while said reconfigurable logic device is reconfigured.