mhurhangee/ep-ind-claims huggingface dataset:
Helically coiled heat exchanger for the indirect exchange of heat between a two-phase first medium and a second medium (M'), having - a shell which surrounds a shell space and which extends along a longitudinal axis (z), - an inlet for the admission of the two-phase first medium into the shell space, - a tube bundle which is arranged in the shell space and which has multiple tubes for accommodating the second medium (M'), which tubes are helically coiled about the longitudinal axis (z), and - a separating device for separating a gaseous phase from a liquid phase of the two-phase first medium, characterized in that the separating device has a tray which is arranged above the tube bundle and which serves for collecting the liquid phase, wherein the tray has a plurality of chimneys (50, 70) for the purpose of separating the two phases (F, G), wherein the respective chimney (50, 70) projects from the tray from a side of the tray facing away from the tube bundle, is covered by a roof (52, 72) and opens into a passage opening in the tray, wherein furthermore, between the respective roof (52, 72) and an upper end of the respective chimney (50, 70), there is provided an inlet opening (51, 71) via which the gaseous phase can flow into the respective chimney (50, 70). - a shell which surrounds a shell space and which extends along a longitudinal axis (z), - an inlet for the admission of the two-phase first medium into the shell space, - a tube bundle which is arranged in the shell space and which has multiple tubes for accommodating the second medium (M'), which tubes are helically coiled about the longitudinal axis (z), and - a separating device for separating a gaseous phase from a liquid phase of the two-phase first medium,
A system comprising - a terminal device contactlessly communicating in the near zone for carrying out transactions with transaction partners disposed in the near zone, - a transaction unit as a transaction partner for the terminal device, and - an end device which is arranged to set up an in the near zone contactless data communication with the terminal device, characterized in that the transaction unit (350, 450, 500) is a transaction unit (350, 450, 500) remotely disposed from the terminal device, the end device is a relay end device which is arranged to relay transaction data received from the terminal device to the remotely disposed transaction unit (350, 450, 500), and the system further comprises: - a server device which switches the relay end device with the transaction unit (350, 450, 500) as a transaction partner for the terminal device, depending on the type of transaction. - a terminal device contactlessly communicating in the near zone for carrying out transactions with transaction partners disposed in the near zone, - a transaction unit as a transaction partner for the terminal device, and - an end device which is arranged to set up an in the near zone contactless data communication with the terminal device, characterized in that the transaction unit (350, 450, 500) is a transaction unit (350, 450, 500) remotely disposed from the terminal device, the end device is a relay end device which is arranged to relay transaction data received from the terminal device to the remotely disposed transaction unit (350, 450, 500), and the system further comprises: - a server device which switches the relay end device with the transaction unit (350, 450, 500) as a transaction partner for the terminal device, depending on the type of transaction.
Method for manufacturing a substrate for surface-enhanced Raman spectography adapted to receive an incident wave at an incident wavelength, with the method comprising the following steps: - creating a supporting structure on an upper surface of a support, with the supporting structure comprising at least one microstructured pattern, the microstructured pattern comprising a top and sidewalls, with the sidewalls extending according to a direction secant to the direction of the upper surface; - depositing of a multilayer on the supporting structure, with the multilayer comprising at least two layers of a first dielectric material, referred to as "pillar layers", separated from one another by a layer of a second dielectric material, referred to as "intermediate layer", the second dielectric material that can be selectively etched in relation to the first dielectric material; - etching of a portion of the multilayer deposited on the top of the microstructured pattern in such a way as to expose an end (18, 19) of each layer (13, 14) of the multilayer; - selective etching of a portion of each end of each intermediate layer in such a way as to form cavities between the ends of two successive pillar layers; - depositing of a metal layer on each end of each pillar layer. - creating a supporting structure on an upper surface of a support, with the supporting structure comprising at least one microstructured pattern, the microstructured pattern comprising a top and sidewalls, with the sidewalls extending according to a direction secant to the direction of the upper surface; - depositing of a multilayer on the supporting structure, with the multilayer comprising at least two layers of a first dielectric material, referred to as "pillar layers", separated from one another by a layer of a second dielectric material, referred to as "intermediate layer", the second dielectric material that can be selectively etched in relation to the first dielectric material; - etching of a portion of the multilayer deposited on the top of the microstructured pattern in such a way as to expose an end (18, 19) of each layer (13, 14) of the multilayer; - selective etching of a portion of each end of each intermediate layer in such a way as to form cavities between the ends of two successive pillar layers; - depositing of a metal layer on each end of each pillar layer.
A sea water intake riser system (100; 100') for a floating production unit, comprising at least two caissons, wherein the height of each caisson is substantially equal to a vertical height of a hull of the floating production unit and extends, when mounted to the hull of the floating production unit, from a predetermined minimum distance from the bottom side of the hull up to at least the water-line during use, each caisson comprising an open top side at substantially the same height as the deck and a through-opening in a bottom side; a lift pump arranged inside each of the caissons and having an inlet at a vertical distance with a predetermined minimum submergence (d) and adapted for pumping cold water from the caisson up to the floating production unit for use as cooling medium by production equipment of the floating production unit, and a sump tank, attached to the bottom side of each of the caissons such that each through-opening thereof is in fluid communication with a volume inside the sump tank, the sump tank being located between the bottom side of the hull and the at least two caissons when mounted, defining a sump volume extending between the bottom side of the hull, when the sea water intake riser system is mounted thereto, and the bottom side of each of the caissons over the entire width of the at least two caissons, and having a through-opening in a bottom side and being connectable to an upper end of a riser pipe, wherein the caissons have a width equal to the width of the sump tank divided by the at least two caissons connected thereto. a lift pump arranged inside each of the caissons and having an inlet at a vertical distance with a predetermined minimum submergence (d) and adapted for pumping cold water from the caisson up to the floating production unit for use as cooling medium by production equipment of the floating production unit, and a sump tank, attached to the bottom side of each of the caissons such that each through-opening thereof is in fluid communication with a volume inside the sump tank, the sump tank being located between the bottom side of the hull and the at least two caissons when mounted, defining a sump volume extending between the bottom side of the hull, when the sea water intake riser system is mounted thereto, and the bottom side of each of the caissons over the entire width of the at least two caissons, and having a through-opening in a bottom side and being connectable to an upper end of a riser pipe, wherein the caissons have a width equal to the width of the sump tank divided by the at least two caissons connected thereto.
A polymer composition [composition] comprising: (a) a poly(aryletherketone) polymer [polymer (PAEK)]; (a-1) optionally, an aromatic sulfone polymer [polymer]; (b) an acidic glass fiber [glass fiber (F ac)] whose pH, measured in deionized water, is at most 7.0 and/or a neutral glass fiber [glass fiber (F n)] whose pH, measured in deionized water, is higher than 7.0 and at most 8.2; and (c) a basic inorganic additive [additive] selected from the group consisting of calcium oxide, magnesium oxide, hydrotalcite, and mixtures thereof. (a) a poly(aryletherketone) polymer [polymer (PAEK)]; (a-1) optionally, an aromatic sulfone polymer [polymer]; (b) an acidic glass fiber [glass fiber (F ac)] whose pH, measured in deionized water, is at most 7.0 and/or a neutral glass fiber [glass fiber (F n)] whose pH, measured in deionized water, is higher than 7.0 and at most 8.2; and (c) a basic inorganic additive [additive] selected from the group consisting of calcium oxide, magnesium oxide, hydrotalcite, and mixtures thereof.
A peptide that is a proteo-mimetic of TIM3 that binds to CEACAM1, wherein the peptide consists of the sequence of Cys-Pro-Val-Phe-Glu-Cys-Gly-Asn-Val-Val-Leu-Arg-Thr-Asp-Glu-Arg-Asp-Val-Asn-Tyr or comprises the sequence of Cys-Pro-Val-Phe-Glu-Ser-Gly-Ser-Gly-Arg-Ile-Gln-Glu-Pro-Gly-Ile-Met, wherein said peptide binds to CEACAM1 and inhibits signalling mediated by the interaction of TIM3 and CEACAM1.
A semiconductor package comprising: a substrate; an integrated circuit disposed on the substrate, the integrated circuit having a low power region and a high power region; a memory support disposed on the low power region of the integrated circuit, the memory support configured to allow a flow of fluid therethrough to conduct heat away from the low power region of the integrated circuit; stacked memory disposed on the memory support and in communication with the integrated circuit; and a lid connected to the substrate and defining a first port (152, 152a), a second port (152, 152b), and a lid volume fluidly connecting the first port (152, 152a) and the second port (152, 152b), the lid volume configured to house the integrated circuit, the memory support, and the stacked memory, while directing the flow of fluid to flow over the integrated circuit, the memory support, and the stacked memory; characterized by further comprising a heat sink disposed on the high power region of the integrated circuit, the lid volume configured to house the heat sink while directing the flow of fluid to flow over the heat sink, the heat sink having a plurality of fins. a substrate; an integrated circuit disposed on the substrate, the integrated circuit having a low power region and a high power region; a memory support disposed on the low power region of the integrated circuit, the memory support configured to allow a flow of fluid therethrough to conduct heat away from the low power region of the integrated circuit; stacked memory disposed on the memory support and in communication with the integrated circuit; and a lid connected to the substrate and defining a first port (152, 152a), a second port (152, 152b), and a lid volume fluidly connecting the first port (152, 152a) and the second port (152, 152b), the lid volume configured to house the integrated circuit, the memory support, and the stacked memory, while directing the flow of fluid to flow over the integrated circuit, the memory support, and the stacked memory; characterized by further comprising a heat sink disposed on the high power region of the integrated circuit, the lid volume configured to house the heat sink while directing the flow of fluid to flow over the heat sink, the heat sink having a plurality of fins.
Ceramic and/or metal powder pressing tool for a ceramic and/or metal powder press, wherein, for pressing a pulverulent or granular material, the pressing tool comprises: - a die having a die opening, and - in each case at least one ram carrier arrangement on the upper side and lower side of the die, wherein the ram carrier arrangements each comprise at least one ram carrier with at least one pressing ram, wherein the pressing rams run into, or can be made to run into, the die opening, - wherein at least the ram carrier arrangement arranged on the upper side of the die has a pressing force transmission device arranged adjacent to the ram carrier in the direction of a pressing force, - wherein a separating region is formed between the pressing force transmission device and the ram carrier, - wherein a force-transmitting connection with the ram carrier can be established over the separating region for pressing, and wherein the pressing force transmission device and the ram carrier can be spaced apart from one another in the separating region after pressing, - wherein the pressing force transmission device and the ram carrier are coupled to one another by means of a coupling device which transmits a counter-force, - characterized in that the pressing force transmission device and the ram carrier of the ram carrier arrangement arranged on the upper side of the die are coupled to one another by means of an imposed-load reducing device which transmits an imposed-load reducing force, and - in that the imposed-load reducing device is designed to apply the imposed-load reducing force opposite to a direction facing the die or the die opening. - a die having a die opening, and - in each case at least one ram carrier arrangement on the upper side and lower side of the die, wherein the ram carrier arrangements each comprise at least one ram carrier with at least one pressing ram, wherein the pressing rams run into, or can be made to run into, the die opening, - wherein at least the ram carrier arrangement arranged on the upper side of the die has a pressing force transmission device arranged adjacent to the ram carrier in the direction of a pressing force, - wherein a separating region is formed between the pressing force transmission device and the ram carrier, - wherein a force-transmitting connection with the ram carrier can be established over the separating region for pressing, and wherein the pressing force transmission device and the ram carrier can be spaced apart from one another in the separating region after pressing, - wherein the pressing force transmission device and the ram carrier are coupled to one another by means of a coupling device which transmits a counter-force, - characterized in that the pressing force transmission device and the ram carrier of the ram carrier arrangement arranged on the upper side of the die are coupled to one another by means of an imposed-load reducing device which transmits an imposed-load reducing force, and - in that the imposed-load reducing device is designed to apply the imposed-load reducing force opposite to a direction facing the die or the die opening.
A method of wireless communications performed by a user equipment, UE, comprising: obtaining an indication that a first data radio bearer, DRB, is released, wherein a first mapping maps a first quality of service, QoS, flow to the first DRB, wherein a QoS flow is a finest granularity of QoS differentiation in a protocol data unit, PDU, session; obtaining a second mapping that maps the first QoS flow to a second DRB; editing service data adaptation protocol, SDAP, headers of uplink protocol data units, PDUs, in an uplink transmission buffer associated with the first DRB, based on a difference between a first configuration of the first DRB and a second configuration of the second DRB, wherein one of the first configuration and the second configuration indicates that uplink SDAP PDUs do not have SDAP headers and the other of the first configuration and the second configuration indicates that uplink SDAP PDUs have SDAP headers and editing the SDAP headers comprises adding an SDAP header to or deleting an SDAP header from each uplink PDU in the uplink transmission buffer, such that the uplink PDUs correspond to the second configuration; and transmitting the uplink PDUs via the second DRB. obtaining an indication that a first data radio bearer, DRB, is released, wherein a first mapping maps a first quality of service, QoS, flow to the first DRB, wherein a QoS flow is a finest granularity of QoS differentiation in a protocol data unit, PDU, session; obtaining a second mapping that maps the first QoS flow to a second DRB; editing service data adaptation protocol, SDAP, headers of uplink protocol data units, PDUs, in an uplink transmission buffer associated with the first DRB, based on a difference between a first configuration of the first DRB and a second configuration of the second DRB, wherein one of the first configuration and the second configuration indicates that uplink SDAP PDUs do not have SDAP headers and the other of the first configuration and the second configuration indicates that uplink SDAP PDUs have SDAP headers and editing the SDAP headers comprises adding an SDAP header to or deleting an SDAP header from each uplink PDU in the uplink transmission buffer, such that the uplink PDUs correspond to the second configuration; and transmitting the uplink PDUs via the second DRB.
A cell composition for making artificial liver constructs, the composition comprising, in combination: (a) hepatocyte cells, (b) Kupffer cells, (c) hepatic stellate cells, (d) sinusoidal endothelial cells, and (e) cholangiocyte cells, optionally wherein said cells are mammalian cells, wherein: (a) said hepatocyte cells are included in an amount by number of from 70 to 90 percent; (b) said Kupffer cells are included in an amount by number of from 5 to 20 percent; (c) said hepatic stellate cells are included in an amount by number of from 2 to 10 percent; (d) said sinusoidal endothelial cells are included in an amount by number of from 2 to 10 percent; and (e) said cholangiocyte cells are included in an amount by number of from 1 to 4 percent. (a) said hepatocyte cells are included in an amount by number of from 70 to 90 percent; (b) said Kupffer cells are included in an amount by number of from 5 to 20 percent; (c) said hepatic stellate cells are included in an amount by number of from 2 to 10 percent; (d) said sinusoidal endothelial cells are included in an amount by number of from 2 to 10 percent; and (e) said cholangiocyte cells are included in an amount by number of from 1 to 4 percent.
A method of preparing copy-normalized oligonucleotide samples for multiplex sequencing comprising: identifying one or more oligonucleotide pools and multiple primer pairs responsive to a random-access request for digital data encoded onto DNA strands in the one or more oligonucleotide pools, wherein each random-access request corresponds to a different primer pair; creating a plurality of isolated reaction volumes (102, 204) each comprising a portion of one of the oligonucleotide pools, one of the identified primer pairs, and polymerase chain reaction, PCR, master mix, wherein the isolated reaction volumes prevent interaction between components in separate isolated reaction volumes; thermocycling the plurality of isolated reaction volumes under conditions suitable for PCR, wherein different PCR reactions occur in isolated reaction volumes comprising different primer pairs during thermocycling; measuring a quantity of oligonucleotides in individual ones of the plurality of isolated reaction volumes; and normalizing the quantity of oligonucleotides in a selection of the plurality of isolated reaction volumes prior to multiplex sequencing; decode a read from the multiplex sequencer to reproduce the digital data in the random access request. identifying one or more oligonucleotide pools and multiple primer pairs responsive to a random-access request for digital data encoded onto DNA strands in the one or more oligonucleotide pools, wherein each random-access request corresponds to a different primer pair; creating a plurality of isolated reaction volumes (102, 204) each comprising a portion of one of the oligonucleotide pools, one of the identified primer pairs, and polymerase chain reaction, PCR, master mix, wherein the isolated reaction volumes prevent interaction between components in separate isolated reaction volumes; thermocycling the plurality of isolated reaction volumes under conditions suitable for PCR, wherein different PCR reactions occur in isolated reaction volumes comprising different primer pairs during thermocycling; measuring a quantity of oligonucleotides in individual ones of the plurality of isolated reaction volumes; and normalizing the quantity of oligonucleotides in a selection of the plurality of isolated reaction volumes prior to multiplex sequencing; decode a read from the multiplex sequencer to reproduce the digital data in the random access request.
An absorbent article comprising a liquid pervious topsheet, a liquid impervious backsheet, and an absorbent core comprising an absorbent material between a top core wrap sheet and a back core wrap sheet, said absorbent core being positioned in between said topsheet and said backsheet, said absorbent core having a first and second side edge (131, 132), a front edge and a rear edge, wherein the absorbent core is provided with a plurality of attachment zones (140, 150, 160, 170) where the top core wrap sheet is attached to the back core wrap sheet, and where substantially no absorbent material is present, wherein, seen in a longitudinal direction of the absorbent core, looking from the front edge to the rear edge, the absorbent core comprises subsequently a first, second, third, fourth and fifth zone (Z1, Z2, Z3, Z4, Z5); wherein the absorbent core comprises a front part extending between the front edge and a transverse crotch line of the absorbent core, and a rear part extending between the rear edge and the transverse crotch line of the absorbent core; wherein said first, second and third zone extend in the front part of the absorbent core and said fourth and fifth zone extend in the rear part; wherein in said first and fifth zone substantially no permanent attachment zones which remain attached when wetted and which have a liquid guidance or distribution function are present; wherein said second zone comprises at least a first elongate front attachment zone (130, 140) of the plurality of attachment zones, said first front attachment zone extending from an edge of the first zone in the direction of the third zone; wherein at least said fourth zone comprises at least a first rear elongate attachment zone (160, 170) of the plurality of attachment zones, said first rear attachment zone extending from an edge of the fifth zone in the direction of the third zone; wherein the first rear elongate attachment zone extends into the third zone; wherein said third zone comprises a bridge zone allowing a liquid flow between the first and the second side edge by capillary action through the absorbent material and/or by mass flow; wherein the bridge zone extends between the first front attachment zone and the first rear attachment zone, such that upon wetting of the absorbent material, a front and rear channel are created at said first front and rear attachment zone, respectively, wherein the bridge zone extends between said front and rear channel; wherein a minimum distance between the first front attachment zone and the first rear attachment zone is larger than 3 mm; wherein the second, the third and the fourth zone each extends over a length corresponding with at least 10% of the length of the absorbent core seen in the longitudinal direction.