mhurhangee/ep-ind-claims huggingface dataset:
A fluid reservoir comprising: a reservoir body that includes a first end, a second end, a cross section, and a translation axis that is substantially orthogonal to the cross section and defined by the first end and the second end, wherein the cross section is substantially uniform along the translation axis for at least a portion of a length of the reservoir body; a piston configured and arranged to translate along the translation axis, wherein a volume of the fluid reservoir available to house the fluid is defined by a distance between the piston and the second end of the reservoir body; and an outlet port disposed on a surface of the fluid reservoir, such that when the piston is translated along the translation axis toward said second end a volume of the fluid flows from the fluid reservoir and through the outlet port, wherein the fluid reservoir further comprises a heating structure, characterized in that said first end is configured and arranged to receive at least a portion of an actuator such that when received, the actuator engages with the piston and when engaged, the actuator is configured and arranged to translate the piston toward said second end; and in that when fluid is housed in the reservoir, the heating structure is thermally coupled to the fluid and configured and arranged to energize at least a portion of the fluid housed in the fluid reservoir. a reservoir body that includes a first end, a second end, a cross section, and a translation axis that is substantially orthogonal to the cross section and defined by the first end and the second end, wherein the cross section is substantially uniform along the translation axis for at least a portion of a length of the reservoir body; a piston configured and arranged to translate along the translation axis, wherein a volume of the fluid reservoir available to house the fluid is defined by a distance between the piston and the second end of the reservoir body; and an outlet port disposed on a surface of the fluid reservoir, such that when the piston is translated along the translation axis toward said second end a volume of the fluid flows from the fluid reservoir and through the outlet port, wherein the fluid reservoir further comprises a heating structure, characterized in that said first end is configured and arranged to receive at least a portion of an actuator such that when received, the actuator engages with the piston and when engaged, the actuator is configured and arranged to translate the piston toward said second end; and in that when fluid is housed in the reservoir, the heating structure is thermally coupled to the fluid and configured and arranged to energize at least a portion of the fluid housed in the fluid reservoir.
A device for performing electrolysis of water, the device comprising: a semiconductor structure comprising a surface and an electron guiding layer below said surface, the electron guiding layer of the semiconductor structure being configured to guide electron movement in a plane parallel to the surface, the electron guiding layer of the semiconductor structure comprising an InGaN quantum well or a heterojunction, the heterojunction being a junction between AIN material and GaN material or between AlGaN material and GaN material; at least one metal cathode arranged on the surface of the semiconductor structure; and at least one photoanode arranged on the surface of the semiconductor structure, wherein the at least one photoanode comprises a plurality of quantum dots of In x Ga (1-x) N material, wherein 0.4 ≤ x ≤ 1. a semiconductor structure comprising a surface and an electron guiding layer below said surface, the electron guiding layer of the semiconductor structure being configured to guide electron movement in a plane parallel to the surface, the electron guiding layer of the semiconductor structure comprising an InGaN quantum well or a heterojunction, the heterojunction being a junction between AIN material and GaN material or between AlGaN material and GaN material; at least one metal cathode arranged on the surface of the semiconductor structure; and at least one photoanode arranged on the surface of the semiconductor structure, wherein the at least one photoanode comprises a plurality of quantum dots of In x Ga (1-x) N material, wherein 0.4 ≤ x ≤ 1.
A light emitting diode comprising: a substrate; a first conductivity type semiconductor layer on the substrate; an active layer on the first conductivity type semiconductor layer; a second conductivity type semiconductor layer on the active layer; and a nitride semiconductor layer, having a refractive index less than a refractive index of the second conductivity type semiconductor layer, on the second conductivity type semiconductor layer, characterised by further comprising: a light transmissive ohmic layer between the second conductivity type semiconductor layer and the nitride semiconductor layer. a substrate; a first conductivity type semiconductor layer on the substrate; an active layer on the first conductivity type semiconductor layer; a second conductivity type semiconductor layer on the active layer; and a nitride semiconductor layer, having a refractive index less than a refractive index of the second conductivity type semiconductor layer, on the second conductivity type semiconductor layer, characterised by further comprising: a light transmissive ohmic layer between the second conductivity type semiconductor layer and the nitride semiconductor layer.
A plug-type device in the form of a charging plug-type device for electric vehicles, comprising: electrical components and a movable locking actuator unit for locking the plug-type device in its plugged-in state with a complementary plug-type device; and a housing in which the electrical components and the locking actuator unit are supported mechanically; characterized in that the housing comprised of at least three housing parts (2, 3, 4); wherein the first housing part together with a second housing part defines a first housing cavity thereby forming an abutment edge that extends along the outer surface of the housing, and wherein at least one further housing cavity is defined between the second housing part and at least one further, third housing part, wherein the second housing part extends between the first housing cavity and the at least one further housing cavity, wherein the locking actuator unit is mechanically supported in the first housing cavity and the electrical components are mechanically supported in the at least one further housing cavity. electrical components and a movable locking actuator unit for locking the plug-type device in its plugged-in state with a complementary plug-type device; and a housing in which the electrical components and the locking actuator unit are supported mechanically; characterized in that the housing comprised of at least three housing parts (2, 3, 4); wherein the first housing part together with a second housing part defines a first housing cavity thereby forming an abutment edge that extends along the outer surface of the housing, and wherein at least one further housing cavity is defined between the second housing part and at least one further, third housing part, wherein the second housing part extends between the first housing cavity and the at least one further housing cavity, wherein the locking actuator unit is mechanically supported in the first housing cavity and the electrical components are mechanically supported in the at least one further housing cavity.
Device comprising a substrate (41.0, 51) made of a semi-conductor material of one or plural chemical elements supporting a matrix (50, 60, 70, 80) of diodes organised in rows and columns, and a peripheral substrate contact arranged on at least one side of the matrix (50 60), the substrate having a first type of doping and the diodes (Di) comprising a second doped zone in the substrate, having a second type of doping opposite the first type, the substrate comprising several other doped zones, and each forming a buried conducting line (53, 63, 73, 83) buried in the substrate, the buried conducting lines are: - made of a semi-conductor material composed of the or the same chemical elements than said semi-conductor material of said substrate; - are flush with a principal surface of the substrate on the side on which the diodes are present (Di), - have no direct electrical connection with the peripheral substrate contact, are positioned between the second doped zones, - extend between two adjacent columns of diodes (Di) and two adjacent rows of diodes (Di), - intersect at an intersection and form a mesh of buried conducting lines (53, 63, 73, 83), and these buried conducting lines having the first type of doping and a greater doping density than the substrate and a gap greater than the gap of the substrate. - made of a semi-conductor material composed of the or the same chemical elements than said semi-conductor material of said substrate; - are flush with a principal surface of the substrate on the side on which the diodes are present (Di), - have no direct electrical connection with the peripheral substrate contact, are positioned between the second doped zones, - extend between two adjacent columns of diodes (Di) and two adjacent rows of diodes (Di), - intersect at an intersection and form a mesh of buried conducting lines (53, 63, 73, 83), and these buried conducting lines having the first type of doping and a greater doping density than the substrate and a gap greater than the gap of the substrate.
A method of making handoff determinations in an access terminal, the method comprising: receiving power reference signals from attachment points, wherein an attachment point corresponds to a combination of a base station, a sector of a base station, and a carrier frequency associated with the sector of the base station; identifying on a per carrier basis for each of a plurality of alternative carriers based on the received power reference signals, the attachment points with which the best connection can be established using the corresponding carrier; calculating a first service level indicating metric corresponding to a current connection corresponding to a first attachment point of the identified attachment points using a first function; calculating a second service level indicating metric corresponding to an alternative connection corresponding to a second attachment point of the identified attachment points using a second function which is different from said first function; and making a handoff decision based on said first and second service level indicating metrics. receiving power reference signals from attachment points, wherein an attachment point corresponds to a combination of a base station, a sector of a base station, and a carrier frequency associated with the sector of the base station; identifying on a per carrier basis for each of a plurality of alternative carriers based on the received power reference signals, the attachment points with which the best connection can be established using the corresponding carrier; calculating a first service level indicating metric corresponding to a current connection corresponding to a first attachment point of the identified attachment points using a first function; calculating a second service level indicating metric corresponding to an alternative connection corresponding to a second attachment point of the identified attachment points using a second function which is different from said first function; and making a handoff decision based on said first and second service level indicating metrics.
Device comprising an electromagnet with a coil space and an actuating element, which is a valve or a clutch, wherein the electromagnet and the actuating element are connected to one another by means of threads (4, 5), and these threads (4, 5) are in the vicinity of and are fluidically connected to on the one hand a first elastomer seal and on the other hand a second elastomer seal, and wherein the threads (4, 5) have adjacent to them axially in both directions chambers (6, 7), which are closed off on the sides of the chambers (6, 7) that are respectively facing away from the threads (4, 5) on the one hand by cylinder surfaces (12, 14) on the actuating element side and on the other hand by cylinder surfaces (11, 13) on the electromagnet side, wherein the cylinder surfaces (12, 14) on the actuating element side and the cylinder surfaces (11, 13) on the electromagnet side have no radial play or only a small amount of radial play in relation to one another in such a way that, in their interaction, the overlapping cylinder surfaces on the one hand of the thread (11, 12) and the overlapping cylinder surfaces on the other hand of the thread (13, 14) respectively form gap seals, and wherein a conical surface on the actuating element side presses the first elastomer seal against the delimiting surface on the electromagnet side of a sealing space, wherein the second elastomer seal is arranged between a delimiting surface of the electromagnet and a delimiting surface of the actuating element and is arranged in such a way that it seals off an armature space of the electromagnet from the coil space of the electromagnet and the chamber on the electromagnet side that is fluidically connected to the coil space.
Peptides of the general following formula: X - Pro* - Pro* - Xaa - Y • Xaa being selected from Leucine (Leu, L), Arginine (Arg, R), Lysine (Lys, K), Alanine (Ala, A), Serine (Ser, S), and Aspartic acid (Asp, D); • At the N terminal end of the peptide, X being selected from H, -CO-R 1 and -SO 2 -R 1; • At the C terminal end of the peptide, Y being selected from OH, OR 1, NH 2, NHR 1 and NR 1 R 2; • R 1 and R 2 being, independently from each other, an alkyl chain of 3 to 24 carbon atoms; • Pro* corresponding to a Proline, an analogue or derivative thereof; • if X is H then Y is selected from OR 1, NHR 1 and NR 1 R 2, and if Y is OH then X is -CO-R 1 or -SO 2 -R 1; and • said derivatives and analogue being selected from: - azetidine-2-carboxylic acid, β-proline, pipecolic acid, nipecotic acid, thio-proline, 4-hydroxy-proline and 3,4-dehydro-proline, - compounds resulting from a substitution on the proline by an R group selected from a dimethyl on position 3, a NH 2, benzyl, cyclohexyl, oxo or SH on position 4, and a dimethyl or oxo on position 5, and - 3-carboxy-morpholine, 2-carboxy-morpholine, 1,2,3,4-tetrahydroisoquinoline-3-carboxylic acid and its hydroxylated derivative and 1,2,3,4-tetrahydroisoquinoline-1-carboxylic acid. • Xaa being selected from Leucine (Leu, L), Arginine (Arg, R), Lysine (Lys, K), Alanine (Ala, A), Serine (Ser, S), and Aspartic acid (Asp, D); • At the N terminal end of the peptide, X being selected from H, -CO-R 1 and -SO 2 -R 1; • At the C terminal end of the peptide, Y being selected from OH, OR 1, NH 2, NHR 1 and NR 1 R 2; • R 1 and R 2 being, independently from each other, an alkyl chain of 3 to 24 carbon atoms; • Pro* corresponding to a Proline, an analogue or derivative thereof; • if X is H then Y is selected from OR 1, NHR 1 and NR 1 R 2, and if Y is OH then X is -CO-R 1 or -SO 2 -R 1; and • said derivatives and analogue being selected from: - azetidine-2-carboxylic acid, β-proline, pipecolic acid, nipecotic acid, thio-proline, 4-hydroxy-proline and 3,4-dehydro-proline, - compounds resulting from a substitution on the proline by an R group selected from a dimethyl on position 3, a NH 2, benzyl, cyclohexyl, oxo or SH on position 4, and a dimethyl or oxo on position 5, and - 3-carboxy-morpholine, 2-carboxy-morpholine, 1,2,3,4-tetrahydroisoquinoline-3-carboxylic acid and its hydroxylated derivative and 1,2,3,4-tetrahydroisoquinoline-1-carboxylic acid. - azetidine-2-carboxylic acid, β-proline, pipecolic acid, nipecotic acid, thio-proline, 4-hydroxy-proline and 3,4-dehydro-proline, - compounds resulting from a substitution on the proline by an R group selected from a dimethyl on position 3, a NH 2, benzyl, cyclohexyl, oxo or SH on position 4, and a dimethyl or oxo on position 5, and - 3-carboxy-morpholine, 2-carboxy-morpholine, 1,2,3,4-tetrahydroisoquinoline-3-carboxylic acid and its hydroxylated derivative and 1,2,3,4-tetrahydroisoquinoline-1-carboxylic acid.
A method performed at a user equipment of requesting uplink resource from a network node within a wireless network, for transmitting uplink data, comprising: Selecting a scheduling request and a resource for transmission of said scheduling request at least one of said scheduling request and resource being selected in dependence upon whether said uplink data is to be transmitted as a cellular communication to at least one other user equipment transmitted via at least one network node or as a direct communication directly to at least one other user equipment; transmitting said scheduling request on said resource, transmission of said scheduling request indicating whether said request is related to said cellular communication or may be related to said direct communication. Selecting a scheduling request and a resource for transmission of said scheduling request at least one of said scheduling request and resource being selected in dependence upon whether said uplink data is to be transmitted as a cellular communication to at least one other user equipment transmitted via at least one network node or as a direct communication directly to at least one other user equipment; transmitting said scheduling request on said resource, transmission of said scheduling request indicating whether said request is related to said cellular communication or may be related to said direct communication.
A circuit comprising: means for amplifying a differential sensor signal to produce an output signal, wherein the means for amplifying comprises a first input coupled to a first capacitive sensor element, a second input coupled to a second capacitive sensor element, and an output; a sampling capacitor that is coupled to the output of the means for amplifying, wherein the sampling capacitor is adapted to store the output signal; and a correlated triple sampling circuit (42, 43, 36A, 36B, 33) adapted to reduce one or more noise components in the output signal, wherein the correlated triple sampling circuit is adapted to control the first and second inputs by means of switches (36A, 36B), which are activated during first and second clock phases (Φ1, Φ2), such that the sampling capacitor receives the one or more noise components during both the first and second clock phases, and blocks, by filtering out of said output signal, the unchanging noise components of the one of more noise components during the second clock phase to reduce the one or more noise components in the output signal. means for amplifying a differential sensor signal to produce an output signal, wherein the means for amplifying comprises a first input coupled to a first capacitive sensor element, a second input coupled to a second capacitive sensor element, and an output; a sampling capacitor that is coupled to the output of the means for amplifying, wherein the sampling capacitor is adapted to store the output signal; and a correlated triple sampling circuit (42, 43, 36A, 36B, 33) adapted to reduce one or more noise components in the output signal, wherein the correlated triple sampling circuit is adapted to control the first and second inputs by means of switches (36A, 36B), which are activated during first and second clock phases (Φ1, Φ2), such that the sampling capacitor receives the one or more noise components during both the first and second clock phases, and blocks, by filtering out of said output signal, the unchanging noise components of the one of more noise components during the second clock phase to reduce the one or more noise components in the output signal.
A plug socket for telecommunications and/or data transmission systems comprising a plug socket housing of metal, a first printed-circuit board fixed therein and having connection means for electrical conductors, which are accessible from a bottom surface of the housing, a plug-in opening for a plug connector communicating with the socket, a flexible, second printed-circuit board having circuit track portions isolated therefrom and forming contact portions for the contacts of a plug connector and being fixed at the first printed-circuit board and being contacted with the contact tracks thereof, the circuit track portions being resiliently supported by spring means and support means disposed in the housing, the flexible second printed-circuit board resting, with a first end portion, against the first printed-circuit board and being contacted with the circuit tracks thereof, the second end portion of the second printed-circuit board being bent by more than 180° and having, at its end side, short mutually parallel, finger-like isolated circuit track portions protruding into the plug-in opening, characterized by that the second end portion, in the region of the isolated circuit track portions and in the region of part of the bend, is supported by an arc-like support part of insulating material, which includes freely extending fingers adapted to the isolated circuit track portions, on said fingers the isolated circuit track portions resting and being fixed thereto, the support part being limitedly pivotally held with bearing pins in a contact carrier of insulating material fixed in the housing, and the contact carrier partially surrounding and supporting the section of the bend on the surface showing away from the support part, and resting, with a further component, against the surface of the first end portion of the second printed-circuit board resting against the first printed-circuit board, and that between a housing portion and the further component of the contact carrier a first end of a leaf spring is fitted and fixed that, via a bend, merges into isolated spring fingers at the second end, which spring fingers rest against the support part in the region of the fingers thereof on the side showing away from the isolated circuit track portions.
A method of establishing a virtual private network between a client computer and a secure target site, the method comprising the steps of: 1) receiving from the client computer a domain name service DNS lookup request for a target site; 2) determining whether the DNS lookup request corresponds to the secure target site; 3) determining whether the client computer making the DNS lookup request is authorized to connect to the secure target site; 4) responsive to a determination that the DNS lookup request corresponds to the secure target site and that the DNS lookup request is from a client computer that is authorized to connect to the secure target site establishing a virtual private network between the authorized client computer and the secure target site by allocating an IP address hopping regime between the authorized client computer and the secure target site. 1) receiving from the client computer a domain name service DNS lookup request for a target site; 2) determining whether the DNS lookup request corresponds to the secure target site; 3) determining whether the client computer making the DNS lookup request is authorized to connect to the secure target site; 4) responsive to a determination that the DNS lookup request corresponds to the secure target site and that the DNS lookup request is from a client computer that is authorized to connect to the secure target site establishing a virtual private network between the authorized client computer and the secure target site by allocating an IP address hopping regime between the authorized client computer and the secure target site.