mhurhangee/patent-ind-claim-en huggingface dataset:
An annular barrier system for completing a well with a well tubular metal structure , comprising the well tubular metal structure comprising - a first annular barrier and a second annular barrier , each annular barrier being introduced and set in the well to abut a wall of the well, providing a confined space having a confined pressure between the wall, part of the well tubular metal structure, the first annular barrier and the second annular barrier, so that the first annular barrier isolates the confined space from a first annulus having a first pressure, and the second annular barrier isolates the confined space from a second annulus having a second pressure, characterised in that the annular barrier system comprises a pressure-equalising unit having a first position in which the first annulus is in fluid communication with the confined space and a second position in which the second annulus is in fluid communication with the confined space; in the first position the second pressure is higher than the first pressure, and in the second position the first pressure is higher than the second pressure. the well tubular metal structure comprising - a first annular barrier and a second annular barrier , each annular barrier being introduced and set in the well to abut a wall of the well, providing a confined space having a confined pressure between the wall, part of the well tubular metal structure, the first annular barrier and the second annular barrier, so that the first annular barrier isolates the confined space from a first annulus having a first pressure, and the second annular barrier isolates the confined space from a second annulus having a second pressure, - a first annular barrier and a second annular barrier , each annular barrier being introduced and set in the well to abut a wall of the well, providing a confined space having a confined pressure between the wall, part of the well tubular metal structure, the first annular barrier and the second annular barrier, so that the first annular barrier isolates the confined space from a first annulus having a first pressure, and the second annular barrier isolates the confined space from a second annulus having a second pressure, characterised in that the annular barrier system comprises a pressure-equalising unit having a first position in which the first annulus is in fluid communication with the confined space and a second position in which the second annulus is in fluid communication with the confined space; in the first position the second pressure is higher than the first pressure, and in the second position the first pressure is higher than the second pressure.
A handover method, wherein the method comprises: obtaining, by a mobility management network element, second single network slice selection assistance information, S-NSSAI corresponding to a session of a terminal and indication information of a home network of the terminal, wherein the second S-NSSAI is S-NSSAI of the home network of the terminal; obtaining, by the mobility management network element based on the second S-NSSAI and the indication information of the home network, first S-NSSAI corresponding to the session of the terminal, wherein the first S-NSSAI is S-NSSAI of a visited network of the terminal; and sending, by the mobility management network element, the first S-NSSAI to a visited session management network element serving the terminal, wherein the first S-NSSAI is used to indicate a network slice corresponding to the session. obtaining, by a mobility management network element, second single network slice selection assistance information, S-NSSAI corresponding to a session of a terminal and indication information of a home network of the terminal, wherein the second S-NSSAI is S-NSSAI of the home network of the terminal; obtaining, by the mobility management network element based on the second S-NSSAI and the indication information of the home network, first S-NSSAI corresponding to the session of the terminal, wherein the first S-NSSAI is S-NSSAI of a visited network of the terminal; and sending, by the mobility management network element, the first S-NSSAI to a visited session management network element serving the terminal, wherein the first S-NSSAI is used to indicate a network slice corresponding to the session.
Process for regenerating a hydroformylation catalyst consisting of a heterogenized catalyst system, in a vessel, wherein the catalyst system comprises a metal of Group 8 or 9 of the Periodic Table of the Elements and at least one organic phosphorus-containing ligand and is present heterogenized on a support, wherein the support consists of a porous ceramic material and is in the form of granules or in the form of a monolith, wherein the process comprises at least the following steps: a) filling the vessel with a solution consisting of the phosphorus-containing ligand and a solvent, and allowing it to stand for at least one hour, b) discharging the solution from the vessel. wherein the catalyst system comprises a metal of Group 8 or 9 of the Periodic Table of the Elements and at least one organic phosphorus-containing ligand and is present heterogenized on a support, wherein the support consists of a porous ceramic material and is in the form of granules or in the form of a monolith, wherein the process comprises at least the following steps: a) filling the vessel with a solution consisting of the phosphorus-containing ligand and a solvent, and allowing it to stand for at least one hour, b) discharging the solution from the vessel. a) filling the vessel with a solution consisting of the phosphorus-containing ligand and a solvent, and allowing it to stand for at least one hour, b) discharging the solution from the vessel.
An annealed quartz glass cloth, comprising an SiO 2 content of 99.5 mass% or more, a dielectric loss tangent of less than 0.0010 at 10 GHz, and a tensile strength of 1.0 N/25 mm or more per cloth weight (g/m 2 ).
Apparatus for holding an organ for at least one of perfusion, storage, diagnosis and transport of the organ, comprising: a portable housing ; and an organ chair providing an organ supporting surface and configured to support an organ within said portable housing, wherein the portable housing is configured to be received by at least one of an organ perfusion device , an organ transporter and an organ diagnostic device, and includes openings configured to allow tubing to pass by way of the openings and be connected to the organ, wherein a bottom portion of the portable housing is liquid tight, wherein the organ chair is removable from said portable housing, wherein the organ chair is constructed to correspond to a specific type of organ, preferably one of a kidney, heart, and liver, and preferably designed to be form fitting to the organ but to allow for a full anthropometric range of organ sizes, and wherein (i) the organ chair further comprises a venous outflow sampler or (ii) the organ chair is optically clear. a portable housing ; and an organ chair providing an organ supporting surface and configured to support an organ within said portable housing, wherein the portable housing is configured to be received by at least one of an organ perfusion device , an organ transporter and an organ diagnostic device, and includes openings configured to allow tubing to pass by way of the openings and be connected to the organ, wherein a bottom portion of the portable housing is liquid tight, wherein the organ chair is removable from said portable housing,
A method executed by a terminal for boosting power of a phase tracking reference signal, PTRS, in a telecommunication system, wherein a PTRS is used in an uplink transmission and at least one uplink PTRS port is configured and whereby the power boosting is defined by means of first information relating the power to a number of physical uplink shared channel, PUSCH, layers, the method comprising: receiving, from a base station, the first information related to power of an uplink PTRS, wherein the first information is the RRC parameter UL-PTRS-energy per resource element, EPRE, ratio with default value of 00; identifying a factor related to a PUSCH to PTRS power ratio per layer per resource element, RE, wherein the factor is based on the first information and a number of PUSCH layers, wherein the factor related to the PUSCH to PTRS power ratio per layer per RE is further based on a number of uplink PTRS ports , characterized in that defining a power constraint for the uplink transmissions on a per antenna or per antenna port basis; transmitting to the base station UE capability information related to per antenna or per antenna port power constraint. receiving, from a base station, the first information related to power of an uplink PTRS, wherein the first information is the RRC parameter UL-PTRS-energy per resource element, EPRE, ratio with default value of 00; identifying a factor related to a PUSCH to PTRS power ratio per layer per resource element, RE, wherein the factor is based on the first information and a number of PUSCH layers, wherein the factor related to the PUSCH to PTRS power ratio per layer per RE is further based on a number of uplink PTRS ports , characterized in that defining a power constraint for the uplink transmissions on a per antenna or per antenna port basis; transmitting to the base station UE capability information related to per antenna or per antenna port power constraint.
A polymeric composition with anti-icing and self-cleaning properties for the coating of surfaces comprising based on the total weight of the composition: - from 20 to 25 wt % of a hybrid polymeric matrix of siloxane and epoxy; - from 1. 5 to 3.5 wt % a polydimethyl siloxane-based hydrophobic additive; - from 3 to 15 wt % of silica nanoparticles; - from 45 to 60 wt % of an organic solvent; - from 1 to 2% wt % of UV protecting additive; - from 10 to 13% of a curing agent or a mixture of curing agents. - from 20 to 25 wt % of a hybrid polymeric matrix of siloxane and epoxy; - from 1. 5 to 3.5 wt % a polydimethyl siloxane-based hydrophobic additive; - from 3 to 15 wt % of silica nanoparticles; - from 45 to 60 wt % of an organic solvent; - from 1 to 2% wt % of UV protecting additive; - from 10 to 13% of a curing agent or a mixture of curing agents.
Transport assembly for wood fibre boards (10.1, 10.2, 10.3) with at least one first transporting device for the horizontal transportation of wood fibre boards (10.1, 10.2, 10.3) that are partly lying on top of each other along a transporting route S at a first transporting height (T1), and a stacking position for wood fibre boards (10.1, 10.2, 10.3) in a transporting direction behind the first transporting device wherein at least one second transporting device is provided, characterised in that the second transporting device is suitable for transporting wood fibre boards (10.1, 10.2, 10.3) at a second transporting height (T2) within the transporting route (S), and in that the second transporting device comprises carrier elements which can be activated on a portion of the transporting route (S) in such a way that a wood fibre board located in the transporting route is lifted to a higher transporting level (T2) in that the carrier elements have been positioned under the wood fibre board by way of the second transporting device moving forwards. at least one second transporting device is provided, characterised in that the second transporting device is suitable for transporting wood fibre boards (10.1, 10.2, 10.3) at a second transporting height (T2) within the transporting route (S), and in that the second transporting device comprises carrier elements which can be activated on a portion of the transporting route (S) in such a way that a wood fibre board located in the transporting route is lifted to a higher transporting level (T2) in that the carrier elements have been positioned under the wood fibre board by way of the second transporting device moving forwards.
A sensor opening test system configured to perform opening testing of a sensor that is newly installed, the sensor opening test system comprising: a sensor-side metadata acquiring unit configured to acquire sensor-side test metadata that is for use in opening testing and includes at least a sensor identifier uniquely identifying a sensor (la - 1c, 30) configured to output sensing data or a network adaptor connected to the sensor (la - 1c, 30) and configured to transmit sensing data to a network; an application-side metadata acquiring unit configured to acquire application-side test metadata that is metadata of an opening test application for use in opening testing of the sensor (la - 1c, 30) and includes at least the sensor identifier; a matching unit configured to determine matching of the acquired sensor-side test metadata and the acquired application-side test metadata, based on a sameness of the sensor identifiers; and an instructing unit configured to transmit, to a distribution device configured to manage distribution of the sensing data, a dataflow control command instructing test data flow to the opening test application from the sensor (la - 1c, 30) or network adaptor specified by the sensor-side test metadata and the application-side test metadata that are matched. a sensor-side metadata acquiring unit configured to acquire sensor-side test metadata that is for use in opening testing and includes at least a sensor identifier uniquely identifying a sensor (la - 1c, 30) configured to output sensing data or a network adaptor connected to the sensor (la - 1c, 30) and configured to transmit sensing data to a network; an application-side metadata acquiring unit configured to acquire application-side test metadata that is metadata of an opening test application for use in opening testing of the sensor (la - 1c, 30) and includes at least the sensor identifier; a matching unit configured to determine matching of the acquired sensor-side test metadata and the acquired application-side test metadata, based on a sameness of the sensor identifiers; and an instructing unit configured to transmit, to a distribution device configured to manage distribution of the sensing data, a dataflow control command instructing test data flow to the opening test application from the sensor (la - 1c, 30) or network adaptor specified by the sensor-side test metadata and the application-side test metadata that are matched.
Optoelectronic sensor having at least one measuring light source for emitting at least one measuring light beam in the infrared wavelength range into a monitoring range , at least one pilot light source for emitting at least one pilot light beam in the visible wavelength range into the monitoring range , an optical element for coaxially superimposing the measuring light beam and the pilot light beam , a light receiver for receiving measuring light beams emitted or reflected from the monitoring area and generating corresponding received signals, a control and evaluation unit for controlling the light receiver , the measuring light source and/or the pilot light source and for evaluating the received signals, wherein the optical element for coaxial superimposition of the measuring light beam and the pilot light beam has at least one first optical metasurface which is designed for coaxial superimposition of the measuring light beam and the pilot light beam characterized in that a second optical metasurface is arranged downstream of the measuring light source in the direction of the light beam for adjusting an opening angle of the measuring light beam , in particular for collimating the measuring light beam , and a third optical metasurface is arranged downstream of the pilot light source in the direction of the light beam for adjusting an opening angle of the pilot light beam , in particular for collimating the pilot light beam , or the first optical metasurface is designed for adjusting the opening angle of the measuring light beam , in particular for collimating the measuring light beam , and for adjusting the opening angle of the pilot light beam , in particular for collimating the pilot light beam . a second optical metasurface is arranged downstream of the measuring light source in the direction of the light beam for adjusting an opening angle of the measuring light beam , in particular for collimating the measuring light beam , and a third optical metasurface is arranged downstream of the pilot light source in the direction of the light beam for adjusting an opening angle of the pilot light beam , in particular for collimating the pilot light beam , or the first optical metasurface is designed for adjusting the opening angle of the measuring light beam , in particular for collimating the measuring light beam , and for adjusting the opening angle of the pilot light beam , in particular for collimating the pilot light beam .
An liquid inkjet print device comprising a conveyor system which comprises a conveyor belt , linked on two or more pulleys: - to carry a rigid or flexible sheet with successive distance movements in a conveying direction by a drive system: and wherein the drive system comprises: a) a driving mean to drive and control a first linear movement system b) a first belt gripper that has a first engaging mean to engage the conveyor belt when the first belt gripper is moved by the first linear movement system from a home position to an end position and that has a first releasing mean to release the conveyor belt when the first belt gripper is moved by the first linear movement system from the end position to the home position; c) a second belt gripper that has a second releasing mean to release the conveyor belt when the first belt gripper is moved by the first linear movement system from the home position to the end position and that has a second engaging mean to engage the conveyor belt when the first belt gripper is moved by the first linear movement system from the end position to the home position; and wherein the engage-zone of the first belt gripper and the second belt gripper is at the edge of the conveyor belt ; and wherein the drive system comprises an encoder system on the first linear movement system with means for returning the position of the first belt gripper and returning the distances of the successive distance movements of the flexible sheet or rigid sheet on the conveyor belt and wherein the fault tolerances of the encoder system is between 16 and 0.01 micrometer. - to carry a rigid or flexible sheet with successive distance movements in a conveying direction by a drive system: and a) a driving mean to drive and control a first linear movement system b) a first belt gripper that has a first engaging mean to engage the conveyor belt when the first belt gripper is moved by the first linear movement system from a home position to an end position and that has a first releasing mean to release the conveyor belt when the first belt gripper is moved by the first linear movement system from the end position to the home position; c) a second belt gripper that has a second releasing mean to release the conveyor belt when the first belt gripper is moved by the first linear movement system from the home position to the end position and that has a second engaging mean to engage the conveyor belt when the first belt gripper is moved by the first linear movement system from the end position to the home position; and
A method of forming an active-containing film product in a film forming apparatus, comprising the steps of: a. providing a coating head capable of depositing a film forming matrix in a first lane and in a second lane onto a substrate, wherein said first lane and said second lane are separate from one another; b. providing a first batch of a first film forming matrix comprising at least one polymer; c. providing a second batch of a second film forming matrix comprising at least one polymer and an active component; d. applying a layer of said first batch through said coating head in said first lane and drying said first applied layer to form a resulting surrogate film; e. measuring said resulting surrogate film for at least one physical property and determining whether said at least one physical property meets pre-determined criteria; f. optionally, adjusting at least one processing parameter and repeating steps (d) and (e) above; and thereafter g. applying a layer of said second batch in said second lane and drying said second applied layer to form an active-containing resulting film; wherein said surrogate film comprises less active than said active-containing film or comprises no active. a. providing a coating head capable of depositing a film forming matrix in a first lane and in a second lane onto a substrate, wherein said first lane and said second lane are separate from one another; b. providing a first batch of a first film forming matrix comprising at least one polymer; c. providing a second batch of a second film forming matrix comprising at least one polymer and an active component; d. applying a layer of said first batch through said coating head in said first lane and drying said first applied layer to form a resulting surrogate film; e. measuring said resulting surrogate film for at least one physical property and determining whether said at least one physical property meets pre-determined criteria; f. optionally, adjusting at least one processing parameter and repeating steps (d) and (e) above; and thereafter g. applying a layer of said second batch in said second lane and drying said second applied layer to form an active-containing resulting film; wherein said surrogate film comprises less active than said active-containing film or comprises no active.
A soft capsule which includes: a core of the soft capsule containing a fill solution; and a capsule shell layer surrounding the core of the soft capsule and comprising dead bacteria. a core of the soft capsule containing a fill solution; and a capsule shell layer surrounding the core of the soft capsule and comprising dead bacteria.
Method for operating a multi-axle drive device , wherein the multi-axle drive device has a synchronising clutch , which is operatively connected between a first output shaft and a connecting shaft and at least one disconnect clutch , which is operatively connected between the connecting shaft and a second output shaft , and wherein the synchronising clutch and the disconnect clutch are open in a first operating state and are closed in a second operating state, wherein during a planned change from the second operating state to the first operating state the synchronising clutch is at least partially open and the disconnect clutch is kept closed, characterised in that subsequently, when a first operating mode is carried out, the disconnect clutch is opened and when a second operating mode is carried out the synchronising clutch is closed again, wherein the first operating mode is carried out, if the value of a traction variable or a driving dynamics variable is equal to a threshold value or exceeds it, and the second operating mode is carried out, if the value of the traction variable is less than the threshold value.