mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an electronic document inspection device that identifies a set of electronic documents using a search query ; a composite page generator that generates a composite page (130; 202; 302; 402) that i) is hosted by a different domain than at least some electronic documents in the set of electronic documents; ii) includes results of the search query that each includes a snippet of an electronic document from the set of electronic documents; and iii) includes the complete electronic document digital content of various electronic documents from the set of electronic documents each associated with one of the snippets; an asset package generator that generates one or more digital content asset packages , each digital content asset package including i) digital content assets and ii) one or more instructions that specify a configuration of the digital content assets for rendering the respective digital content assets; and an asset package list generator that generates a digital content asset package list that specifies an order of presentation of the one or more digital content asset packages on the set of electronic documents of the composite page, wherein the digital content asset package list is configured to be selectable by a user device that provides the search query to select a digital content asset package from the digital content asset package list; wherein the composite page, the one or more digital content asset packages, and the digital content asset package list are transmitted to the given user device that provides the search query. an electronic document inspection device that identifies a set of electronic documents using a search query ; a composite page generator that generates a composite page (130; 202; 302; 402) that i) is hosted by a different domain than at least some electronic documents in the set of electronic documents; ii) includes results of the search query that each includes a snippet of an electronic document from the set of electronic documents; and iii) includes the complete electronic document digital content of various electronic documents from the set of electronic documents each associated with one of the snippets; an asset package generator that generates one or more digital content asset packages , each digital content asset package including i) digital content assets and ii) one or more instructions that specify a configuration of the digital content assets for rendering the respective digital content assets; and an asset package list generator that generates a digital content asset package list that specifies an order of presentation of the one or more digital content asset packages on the set of electronic documents of the composite page, wherein the digital content asset package list is configured to be selectable by a user device that provides the search query to select a digital content asset package from the digital content asset package list; wherein the composite page, the one or more digital content asset packages, and the digital content asset package list are transmitted to the given user device that provides the search query.
An apparatus for manufacturing an absorbent article by bonding a material with a hot-melt adhesive , the apparatus comprising: a melting tank configured to melt the hot-melt adhesive; characterized in that the apparatus comprises: a detection sensor (TS) configured to detect an amount of the hot-melt adhesive in the melting tank ; and an articulated robot which is a device configured to hold the hot-melt adhesive in a container containing the hot-melt adhesive and to move the hot-melt adhesive from the container containing the hot-melt adhesive to the melting tank based on a detection result of the detection sensor (TS). a detection sensor (TS) configured to detect an amount of the hot-melt adhesive in the melting tank ; and an articulated robot which is a device configured to hold the hot-melt adhesive in a container containing the hot-melt adhesive and to move the hot-melt adhesive from the container containing the hot-melt adhesive to the melting tank based on a detection result of the detection sensor (TS).
A computer-implemented method for a node to obtain a credential from a group of specialized nodes , each of the specialized nodes having a private key share of a group private key, wherein the method comprises: sending a request, from the node to a plurality of the specialized nodes, for the credential, wherein the node has an identifier, wherein the identifier includes an identifier string identifying the node and a role string identifying the role of the group of specialized nodes, wherein the identifier is formed from a concatenation of the identifier string, the role string and the expiration time of the credential; receiving, from each node in the plurality of the specialized nodes, a portion of a secret point generated by that node from the identifier and that node's private key share; and generating the secret point by combining the received portions of the secret point, and wherein the secret point comprises the group private key times a map-to-point hash of the identifier, and the credential comprises the identifier and the secret point, and wherein none of the specialized nodes nor the node is required to obtain a complete copy of the group private key; and wherein: the node is not a member of the specialized group of nodes. sending a request, from the node to a plurality of the specialized nodes, for the credential, wherein the node has an identifier, wherein the identifier includes an identifier string identifying the node and a role string identifying the role of the group of specialized nodes, wherein the identifier is formed from a concatenation of the identifier string, the role string and the expiration time of the credential; receiving, from each node in the plurality of the specialized nodes, a portion of a secret point generated by that node from the identifier and that node's private key share; and generating the secret point by combining the received portions of the secret point, and wherein the secret point comprises the group private key times a map-to-point hash of the identifier, and the credential comprises the identifier and the secret point, and wherein none of the specialized nodes nor the node is required to obtain a complete copy of the group private key; and wherein: the node is not a member of the specialized group of nodes.
A hemostasis valve , comprising: a main body having a proximal end region ; a cartridge at least partially disposed within the proximal end region , the cartridge including a seal member ; wherein the seal member is designed to shift between an open configuration and a sealed configuration; a plunger coupled to the proximal end region of the main body , the plunger having an inner tubular region having a distal end ; wherein the distal end of the inner tubular region is spaced a clearance distance from a proximal end of the seal member so that when the seal member is in the sealed configuration and exposed to pressures of about 552 kPa to about 1724 kPa (about 80 to about 250 pounds per square inch), the seal member deflects into contact with the distal end of the inner tubular region and remains in the sealed configuration. a main body having a proximal end region ; a cartridge at least partially disposed within the proximal end region , the cartridge including a seal member ; wherein the seal member is designed to shift between an open configuration and a sealed configuration; a plunger coupled to the proximal end region of the main body , the plunger having an inner tubular region having a distal end ; wherein the distal end of the inner tubular region is spaced a clearance distance from a proximal end of the seal member so that when the seal member is in the sealed configuration and exposed to pressures of about 552 kPa to about 1724 kPa (about 80 to about 250 pounds per square inch), the seal member deflects into contact with the distal end of the inner tubular region and remains in the sealed configuration.
Process for preparing a prosthetic element comprising a glass-ceramic body, said process comprising the steps of a) providing a basic body comprising an amorphous glass phase and containing the components of the glass-ceramic body to be prepared, and b) transferring energy to the basic body to induce conversion of a starting phase of the material of the basic body into at least one crystalline phase in a confined region, wherein energy is transferred to the confined region of the basic body by laser irradiating said region with a laser beam having a wavelength of at least 500 nm and in addition the basic body is heated to a first temperature before laser irradiation. a) providing a basic body comprising an amorphous glass phase and containing the components of the glass-ceramic body to be prepared, and b) transferring energy to the basic body to induce conversion of a starting phase of the material of the basic body into at least one crystalline phase in a confined region, wherein energy is transferred to the confined region of the basic body by laser irradiating said region with a laser beam having a wavelength of at least 500 nm and in addition the basic body is heated to a first temperature before laser irradiation.
Cable tray having two spaced-apart side bars (2, 2.1), with at least one earth wire holder (7, 7.1) and with an earth wire (6, 6.1), wherein the at least one earth wire holder is configured as a spring clamp (7, 7.1) with in each case a receptacle enclosed by two mounting arms (10, 10.1; 10.2, 10.3) for connecting the spring clamp (7, 7.1) to the upper edge of a side bar (2, 2.1) and with an undercut earth wire receptacle (15, 15.1) enclosed by two holding arms (16, 16.1), wherein, when the spring clamp (7, 7.1) is mounted on the upper edge of the side bar (2, 2.1), the mounting arms (10, 10.1; 10.2, 10.3) bear against the side bar under prestress, and the spacing between the holding arms (16, 16.1) in the section enclosing the earth wire receptacle (15, 15.1) is smaller than the diameter of the earth wire (6, 6.1) introduced therein, wherein, with the formation of two earth wire receptacles (15, 15.1), spaced apart from one another in the longitudinal extension of the cable tray , the at least one spring clamp (7, 7.1) is configured as forked, and wherein a connection clamp connected to the earth wire (6, 6.1) is arranged in the intermediate space provided by the forking of the spring clamp (7, 7.1).
A double flow turbojet including: - a low pressure compressor ; - a series of casings extending downstream of this low pressure compressor to delimit a primary flow path for circulating a primary stream , and including an upstream edge located downstream of the low pressure compressor and delimiting a circumferential inlet opening for this primary stream ; - a high pressure compressor situated in the primary flow path; - a shroud surrounding the series of casings to delimit with this series of casings an intermediate flow path for circulating an intermediate stream , this shroud having an upstream edge surrounding the series of casings to delimit with this series of casings an inlet opening situated upstream of the high pressure compressor ; - a secondary flow path casing surrounding the shroud to delimit with this shroud a secondary flow path for circulating a secondary stream ; - an exhaust casing including an outer shell extending into an extension of the series of casings as well as radial arms coming from this outer shell, one at least of these radial arms collecting air coming from the intermediate flow path to supply with pressured air a central region of this exhaust casing , wherein air sucked by low pressure compressor is divided at a level of an intermediate casing situated between the low pressure compressor and the high pressure compressor , to form the primary stream , the intermediate stream , and the secondary stream . - a low pressure compressor ; - a series of casings extending downstream of this low pressure compressor to delimit a primary flow path for circulating a primary stream , and including an upstream edge located downstream of the low pressure compressor and delimiting a circumferential inlet opening for this primary stream ; - a high pressure compressor situated in the primary flow path; - a shroud surrounding the series of casings to delimit with this series of casings an intermediate flow path for circulating an intermediate stream , this shroud having an upstream edge surrounding the series of casings to delimit with this series of casings an inlet opening situated upstream of the high pressure compressor ; - a secondary flow path casing surrounding the shroud to delimit with this shroud a secondary flow path for circulating a secondary stream ; - an exhaust casing including an outer shell extending into an extension of the series of casings as well as radial arms coming from this outer shell, one at least of these radial arms collecting air coming from the intermediate flow path to supply with pressured air a central region of this exhaust casing ,
Process for manufacturing alkyl 7-amino-5-methyl- -oxadiazolo[3,4-b]pyridine-carboxylate 5 wherein R is C 1-3 -alkyl, by combining an integrated continuous flow system under overpressure, with a batch reactor, said process comprising the following steps: (a) reacting malononitrile with sodium nitrite in the presence of a suitable acid in a suitable solvent; (b) reacting the reaction mixture obtained by step (a) with a suitable toluenesulfonic acid derivative to obtain compound 2 ; (c) reacting compound 2 in a suitable solvent with hydroxylamine or a suitable hydroxylamine salt to obtain compound 3 ; (d) cyclisation of compound 3 in the presence of a base under heating to about 120°C in a suitable solvent to obtain the oxadiazole 4 ; (e) removal of water from the reaction mixture by phase separation; (f) in situ -condensation of compound 4 in the reaction mixture obtained after step (e) with the appropriate beta-keto ester of formula , wherein R is C 1-3 -alkyl, in a batch reactor in the presence of a Lewis acid in a suitable solvent; and (g) isolating compound 5 from the batch reactor. wherein R is C 1-3 -alkyl, by combining an integrated continuous flow system under overpressure, with a batch reactor, said process comprising the following steps: (a) reacting malononitrile with sodium nitrite in the presence of a suitable acid in a suitable solvent; (b) reacting the reaction mixture obtained by step (a) with a suitable toluenesulfonic acid derivative to obtain compound 2 ; (c) reacting compound 2 in a suitable solvent with hydroxylamine or a suitable hydroxylamine salt to obtain compound 3 ; (d) cyclisation of compound 3 in the presence of a base under heating to about 120°C in a suitable solvent to obtain the oxadiazole 4 ; (e) removal of water from the reaction mixture by phase separation; (f) in situ -condensation of compound 4 in the reaction mixture obtained after step (e) with the appropriate beta-keto ester of formula , wherein R is C 1-3 -alkyl, in a batch reactor in the presence of a Lewis acid in a suitable solvent; and (g) isolating compound 5 from the batch reactor. (a) reacting malononitrile with sodium nitrite in the presence of a suitable acid in a suitable solvent; (b) reacting the reaction mixture obtained by step (a) with a suitable toluenesulfonic acid derivative to obtain compound 2 ; (c) reacting compound 2 in a suitable solvent with hydroxylamine or a suitable hydroxylamine salt to obtain compound 3 ; (d) cyclisation of compound 3 in the presence of a base under heating to about 120°C in a suitable solvent to obtain the oxadiazole 4 ; (e) removal of water from the reaction mixture by phase separation; (f) in situ -condensation of compound 4 in the reaction mixture obtained after step (e) with the appropriate beta-keto ester of formula , wherein R is C 1-3 -alkyl, in a batch reactor in the presence of a Lewis acid in a suitable solvent; and (g) isolating compound 5 from the batch reactor.
A device for communicating with another device of the same type via an emulated quantum channel , the device comprising: - a central processing unit ; - a memory ; - a hardware quantum random number generator ; - a network interface for communicating via the emulated quantum channel ; - wherein the central processing unit is configured to provide quantum key distribution (QKD) keys to the other device, by: - generating , by means of the quantum random number generator , at least one QKD key; - generating , by means of the quantum random number generator , a token; - sending the token, via the network interface , to the other device; - receiving, from the other device, an encrypted token; - decrypting the encrypted token with the public key of the other device; - comparing the decrypted token with the generated token; - upon determining that the decrypted token corresponds to the generated token, encrypting the at least one QKD key with the public key of the other device and sending, via the network interface , the encrypted at least one QKD key to the other device. - a central processing unit ; - a memory ; - a hardware quantum random number generator ; - a network interface for communicating via the emulated quantum channel ; - wherein the central processing unit is configured to provide quantum key distribution (QKD) keys to the other device, by: - generating , by means of the quantum random number generator , at least one QKD key; - generating , by means of the quantum random number generator , a token; - sending the token, via the network interface , to the other device; - receiving, from the other device, an encrypted token; - decrypting the encrypted token with the public key of the other device; - comparing the decrypted token with the generated token; - upon determining that the decrypted token corresponds to the generated token, encrypting the at least one QKD key with the public key of the other device and sending, via the network interface , the encrypted at least one QKD key to the other device. - generating , by means of the quantum random number generator , at least one QKD key; - generating , by means of the quantum random number generator , a token; - sending the token, via the network interface , to the other device; - receiving, from the other device, an encrypted token; - decrypting the encrypted token with the public key of the other device; - comparing the decrypted token with the generated token; - upon determining that the decrypted token corresponds to the generated token, encrypting the at least one QKD key with the public key of the other device and sending, via the network interface , the encrypted at least one QKD key to the other device.
Suction head for a dredging vessel configured for movement in a direction of movement P, wherein the suction head comprises a construction provided on the bottom side with a suction opening and having a connection for a suction conduit of the dredging vessel and a visor comprising two side walls , a rear wall located at a downstream side relative to the direction of movement P, and a curved wall part which is slidable in substantially watertight manner along a wall part of the construction of the suction head , the visor being rotatable around a shaft running transversely of the direction of movement P between a lowered and a raised position, wherein the visor is open on a bottom side thereof to form the suction opening and comprises on the bottom side thereof a toothed beam running transversely of the direction of movement P and provided with a series of cutting tools for penetrating the bottom, and wherein the visor further comprises an opening in its rear wall along which surrounding water can flow into the suction head , which opening covers at least 30% of the surface area of a visor rear wall part, being a part of the rear wall which extends from the toothed beam up to the curved wall part of the visor, and which opening can be closed to the surrounding water by means of a closing member .
A cationic cured resin system, comprising: A. at least one resin; B. at least one polyol; C. a photoinitiation system; D. at least one abrasion resistant material comprising diamond material and at least a second abrasion resistant material comprising at least one selected from the group consisting of (i) a second diamond material, (ii) a non-diamond material having a Mohs hardness value of at least 6, wherein the at least one abrasion resistant material comprising diamond material is a nanoparticle and the second abrasion resistant material is a microparticle or vice versa; and optionally E. at least one dispersing agent. A. at least one resin; B. at least one polyol; C. a photoinitiation system; D. at least one abrasion resistant material comprising diamond material and at least a second abrasion resistant material comprising at least one selected from the group consisting of (i) a second diamond material, (ii) a non-diamond material having a Mohs hardness value of at least 6, wherein the at least one abrasion resistant material comprising diamond material is a nanoparticle and the second abrasion resistant material is a microparticle or vice versa; and optionally E. at least one dispersing agent.
Compound of the following formula (I): wherein: • R 1 and R 2 , identical or different, represent a hydrogen atom or a group COR 3 , SO 2 R 4 or CONR 5 R 6 ; or form together with the nitrogen atom bearing same a 5- or 6-membered heterocycle comprising at least one additional heteroatom, C=O group or aryl group; • R 3 , R 4 , R 5 and R 6 represent, independently of one another, a hydrogen atom, or an aryl group, said group being optionally substituted by one or a plurality of group(s) chosen from a halogen atom, OR 7 , NR 8 R 9 , SR 10 ,S(O)R 11 , SO 2 R 12 , SO 2 NR 13 R 14 , OCOR 15 , NR 16 COR 17 , NR 18 C(O)OR 19 , CO 2 R 20 ,CONR 21 R 22 , OCO 2 R 23 , OCONR 24 R 25 , COR 26 , nitro (NO 2 ), cyano (CN), oxo (=O) and CF 3 ; and • R 7 to R 26 represent, independently of one another, a hydrogen atom or a (Ci-C 6 )alkyl, aryl or aryl-(C 1 -C 6 )alkyl group, or a salt and/or a pharmaceutically acceptable solvate thereof. • R 1 and R 2 , identical or different, represent a hydrogen atom or a group COR 3 , SO 2 R 4 or CONR 5 R 6 ; or form together with the nitrogen atom bearing same a 5- or 6-membered heterocycle comprising at least one additional heteroatom, C=O group or aryl group; • R 3 , R 4 , R 5 and R 6 represent, independently of one another, a hydrogen atom, or an aryl group, said group being optionally substituted by one or a plurality of group(s) chosen from a halogen atom, OR 7 , NR 8 R 9 , SR 10 ,S(O)R 11 , SO 2 R 12 , SO 2 NR 13 R 14 , OCOR 15 , NR 16 COR 17 , NR 18 C(O)OR 19 , CO 2 R 20 ,CONR 21 R 22 , OCO 2 R 23 , OCONR 24 R 25 , COR 26 , nitro (NO 2 ), cyano (CN), oxo (=O) and CF 3 ; and • R 7 to R 26 represent, independently of one another, a hydrogen atom or a (Ci-C 6 )alkyl, aryl or aryl-(C 1 -C 6 )alkyl group,
A tying tool comprising a handle containing a gearmotor and a tying region , which extends from said handle and comprises, in the following order: - a portion for cutting the tying wire, - a twisting unit for said wire, - a hook-like terminal guide for the sliding of said wire, said tying tool comprising means for the quick disassembly of said cutting portion , characterised in that said cutting portion is contained within a support which has a substantially box-like body interposed between said gearmotor and said guide , said cutting portion comprising a blade which has a substantially tubular space occupation, containing a contrast blade having a substantially cylindrical space occupation which is coaxial to said blade . - a portion for cutting the tying wire, - a twisting unit for said wire, - a hook-like terminal guide for the sliding of said wire,