mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger plate (50; 300; 350; 360) for a heat exchanger (20; 500; 600) of a gas turbine engine for providing heat transfer between a first flow along a first flowpath and a second flow along a second flowpath , the heat exchanger plate (50; 300; 350; 360) comprising: a first face and a second face opposite the first face ; a leading edge along the second flowpath and a trailing edge along the second flowpath ; a proximal edge having at least one inlet port along the first flowpath and at least one outlet port along the first flowpath ; and at least one passageway along the first flowpath , wherein the at least one passageway comprises: an inlet plenum extending from the at least one inlet port of the plate (50; 300; 350; 360); an outlet plenum extending to the at least one outlet port of the plate (50; 300; 350; 360); and a plurality of legs fluidically in parallel between the inlet plenum and the outlet plenum , characterised in that : the leading edge is 88° to 92° off the proximal edge ; and the trailing edge is more than 95° off the proximal edge in exterior angle so that a length decreases from the proximal edge to a distal edge . a first face and a second face opposite the first face ; a leading edge along the second flowpath and a trailing edge along the second flowpath ; a proximal edge having at least one inlet port along the first flowpath and at least one outlet port along the first flowpath ; and at least one passageway along the first flowpath , wherein the at least one passageway comprises: an inlet plenum extending from the at least one inlet port of the plate (50; 300; 350; 360); an outlet plenum extending to the at least one outlet port of the plate (50; 300; 350; 360); and a plurality of legs fluidically in parallel between the inlet plenum and the outlet plenum , an inlet plenum extending from the at least one inlet port of the plate (50; 300; 350; 360); an outlet plenum extending to the at least one outlet port of the plate (50; 300; 350; 360); and a plurality of legs fluidically in parallel between the inlet plenum and the outlet plenum , characterised in that : the leading edge is 88° to 92° off the proximal edge ; and the trailing edge is more than 95° off the proximal edge in exterior angle so that a length decreases from the proximal edge to a distal edge . the leading edge is 88° to 92° off the proximal edge ; and the trailing edge is more than 95° off the proximal edge in exterior angle so that a length decreases from the proximal edge to a distal edge .
An integrated circuit comprising a gain stage, the circuit comprising: a first inductor in a first plurality of metal layers, the first inductor having a plurality of coils including a first coil having a first plurality of loops in a first metal layer and having a center tap in the first metal layer, the first coil coupled by a first via to a second coil having a second plurality of loops in a second metal layer above the first metal layer and coupled by a second via to a third coil having a third plurality of loops in a third metal layer below the first metal layer; a second inductor in the first plurality of metal layers, the second inductor having coils in the first metal layer , the second metal layer and in the third metal layer , wherein the second inductor is outside of the first inductor and extending between a first terminal in the second metal layer and a second terminal , and the first terminal in the second metal layer is coupled to the center tap of the first inductor in the first metal layer; and wherein the second inductor has a diameter (d 2 ) that is less than a diameter (d 1 ) of the first inductor. a first inductor in a first plurality of metal layers, the first inductor having a plurality of coils including a first coil having a first plurality of loops in a first metal layer and having a center tap in the first metal layer, the first coil coupled by a first via to a second coil having a second plurality of loops in a second metal layer above the first metal layer and coupled by a second via to a third coil having a third plurality of loops in a third metal layer below the first metal layer; a second inductor in the first plurality of metal layers, the second inductor having coils in the first metal layer , the second metal layer and in the third metal layer , wherein the second inductor is outside of the first inductor and extending between a first terminal in the second metal layer and a second terminal , and the first terminal in the second metal layer is coupled to the center tap of the first inductor in the first metal layer; and wherein the second inductor has a diameter (d 2 ) that is less than a diameter (d 1 ) of the first inductor.
A computer-implemented method of operating a coordinate measuring machine to measure an object according to a criterion associated with the object, the criterion identifying a probe with which the object is to be measured, the method comprising: providing at least a first and a second available probe , each available probe having a corresponding physical indicium configured to be detected by another probe on the coordinate measuring machine, the physical indicia being distinguishable from each other; locating one of the available probes ; confirming an identity of the located probe by detecting a physical indicium of the located probe; selecting a given probe of the at least first and second available probe based on the confirmed identity, the given probe having an identity that meets the criterion specified for the object to be measured, the given probe being a selected probe; robotically mounting the selected probe to a moveable arm of the coordinate measuring machine ; and controlling the coordinate measuring machine to measure the object with the selected probe. providing at least a first and a second available probe , each available probe having a corresponding physical indicium configured to be detected by another probe on the coordinate measuring machine, the physical indicia being distinguishable from each other; locating one of the available probes ; confirming an identity of the located probe by detecting a physical indicium of the located probe; selecting a given probe of the at least first and second available probe based on the confirmed identity, the given probe having an identity that meets the criterion specified for the object to be measured, the given probe being a selected probe; robotically mounting the selected probe to a moveable arm of the coordinate measuring machine ; and controlling the coordinate measuring machine to measure the object with the selected probe.
A method for producing a Kulfi mix, comprising mixing at least a liquid (L1), milk powder (MP) and sugar (S) to a blend of ingredients (BI) that has a first predetermined amount (TS1) of solid content, heating the blend of ingredients (BI) to a first predetermined temperature (T1), for initiating a Maillard reaction, adding liquid (L1) to the blend of ingredients (BI) to - cool and thereby reduce the temperature of the blend of ingredients (BI), to a second predetermined temperature (T2) for controlling the Maillard reaction, and - reduce its solid content to a second predetermined amount (TS2) of solid content that is lower than the first predetermined amount (TS1) of solid content, thus forming a Kulfi mix (KM). - cool and thereby reduce the temperature of the blend of ingredients (BI), to a second predetermined temperature (T2) for controlling the Maillard reaction, and - reduce its solid content to a second predetermined amount (TS2) of solid content that is lower than the first predetermined amount (TS1) of solid content, thus forming a Kulfi mix (KM).
Arrangement having a door (T) in which between a door leaf and a frame , an intermediate space is provided in which a sole axis of rotation of the door leaf runs, and having an automatic seal which has a housing , a movable seal profile , a mechanism for moving the seal profile relative to the housing and a depressible trigger for actuating the mechanism, which trigger projects beyond the housing on one hinge side when the seal is not triggered, wherein the automatic seal has a retaining bar fastened to the mechanism, characterised in that the housing , the trigger and the seal profile of the automatic seal project beyond the door leaf on the hinge side and into the intermediate space between the door leaf and the frame , the trigger of the automatic seal is at a distance from the frame even when the door is closed in the triggered state, the arrangement has a stop which is fastened to the frame and is arranged between the frame and the trigger of the seal , wherein the trigger bears against the stop when the seal is triggered, the arrangement has a seal element which, at least when the door (T) is in the closed state, is arranged in an area between the hinge-side end of the seal profile , the base and the frame and seals the latter, and either - the seal element is fastened indirectly or directly to the seal profile and/or abuts against it, or - the seal element is fastened to the retaining bar or - the arrangement has a connecting element which is fastened to the retaining bar and to which the seal element is fastened. the housing , the trigger and the seal profile of the automatic seal project beyond the door leaf on the hinge side and into the intermediate space between the door leaf and the frame , the trigger of the automatic seal is at a distance from the frame even when the door is closed in the triggered state, the arrangement has a stop which is fastened to the frame and is arranged between the frame and the trigger of the seal , wherein the trigger bears against the stop when the seal is triggered, the arrangement has a seal element which, at least when the door (T) is in the closed state, is arranged in an area between the hinge-side end of the seal profile , the base and the frame and seals the latter, and either - the seal element is fastened indirectly or directly to the seal profile and/or abuts against it, or - the seal element is fastened to the retaining bar or - the arrangement has a connecting element which is fastened to the retaining bar and to which the seal element is fastened. - the seal element is fastened indirectly or directly to the seal profile and/or abuts against it, or - the seal element is fastened to the retaining bar or - the arrangement has a connecting element which is fastened to the retaining bar and to which the seal element is fastened.
Modified red mud containing the following components: - haematite - corundum - rutile and/or anatase - quartz - optionally CaTi03 perovskite, and - optionally (Fe3+,Fe2+)2(Ti,Fe3+)O5 pseudobrookite, (Na,K)[AlSiO4] nepheline and/or (Na,Ca)4-8[Al6Si6O24(SO4)] hauynite, wherein the modified red mud containing less than 0.5% by weight of Na20 and less than 0.5% by weight of glass. - haematite - corundum - rutile and/or anatase - quartz - optionally CaTi03 perovskite, and - optionally (Fe3+,Fe2+)2(Ti,Fe3+)O5 pseudobrookite, (Na,K)[AlSiO4] nepheline and/or (Na,Ca)4-8[Al6Si6O24(SO4)] hauynite,
A method performed by a Next Generation Node B, gNB, in a communications system implementing User Datagram Protocol, UDP, comprising: encapsulating a data packet to include a UDP header and a Generic UDP Encapsulation, GUE, header, wherein the GUE header comprises a proto/ctype or M type field and a multi-transport network context-identifier, MTNC-ID, field; indicating by the proto/ctype or M type field of the GUE header that the data packet comprises a MTNC-ID corresponding to a forwarding path and being associated with a set of resource provisioning requirements for one or more transport networks on the forwarding path to provision transport resources for traffic forwarding on the forwarding path; inserting the MTNC-ID into the Generic UDP Encapsulation, GUE, header of the data packet, wherein the MTNC-ID is inserted into and carried by the MTNC-ID field; and transmitting the data packet with the UDP header and the GUE header to a network element, NE, in the communications system based on the forwarding path corresponding to the MTNC-ID. encapsulating a data packet to include a UDP header and a Generic UDP Encapsulation, GUE, header, wherein the GUE header comprises a proto/ctype or M type field and a multi-transport network context-identifier, MTNC-ID, field; indicating by the proto/ctype or M type field of the GUE header that the data packet comprises a MTNC-ID corresponding to a forwarding path and being associated with a set of resource provisioning requirements for one or more transport networks on the forwarding path to provision transport resources for traffic forwarding on the forwarding path; inserting the MTNC-ID into the Generic UDP Encapsulation, GUE, header of the data packet, wherein the MTNC-ID is inserted into and carried by the MTNC-ID field; and transmitting the data packet with the UDP header and the GUE header to a network element, NE, in the communications system based on the forwarding path corresponding to the MTNC-ID.
A method of beam failure recovery operable at a scheduling entity , comprising: assigning a same random access channel, RACH, resource to a plurality of scheduled entities including a user equipment , UE, for conveying a beam failure recovery request, BFRR; and receiving , from the UE , the BFRR in a first message of a RACH procedure utilizing the assigned RACH resource; requesting , in the RACH procedure, the UE to provide a cell radio network temporary identity, C-RNTI; receiving , in the RACH procedure, the C-RNTI from the UE ; and confirming the C-RNTI received from the UE corresponds to a C-RNTI stored in the scheduling entity. assigning a same random access channel, RACH, resource to a plurality of scheduled entities including a user equipment , UE, for conveying a beam failure recovery request, BFRR; and receiving , from the UE , the BFRR in a first message of a RACH procedure utilizing the assigned RACH resource; requesting , in the RACH procedure, the UE to provide a cell radio network temporary identity, C-RNTI; receiving , in the RACH procedure, the C-RNTI from the UE ; and confirming the C-RNTI received from the UE corresponds to a C-RNTI stored in the scheduling entity.
Calendar , comprising: - a rotatable roller , ve4erwhich roller is hollow and thereby defines an internal space which can be filled at least partially or is filled at least partially with a heatable fluid, such as oil or air; - a belt , co-acting with the roller, with a determined belt pressure, wherein at least one material for feeding through the calender is situated between the roller and the belt for a determined contact time during throughfeed through the calender; - heating means for heating the fluid and/or the roller, which heating means are optionally disposed in the internal space; - one or more control means for controlling the heating means and/or the belt pressure and/or the contact time, - at least one first temperature sensor for measuring the temperature of an outer periphery of the roller the calender being characterized by at least one second temperature sensor for measuring the temperature of the fluid, and in that the one or more control means are configured to control the heating means and/or the belt pressure and/or the contact time on the basis of the measured outer periphery temperature and the measured fluid temperature. - a rotatable roller , ve4erwhich roller is hollow and thereby defines an internal space which can be filled at least partially or is filled at least partially with a heatable fluid, such as oil or air; - a belt , co-acting with the roller, with a determined belt pressure, wherein at least one material for feeding through the calender is situated between the roller and the belt for a determined contact time during throughfeed through the calender; - heating means for heating the fluid and/or the roller, which heating means are optionally disposed in the internal space; - one or more control means for controlling the heating means and/or the belt pressure and/or the contact time, - at least one first temperature sensor for measuring the temperature of an outer periphery of the roller the calender being characterized by at least one second temperature sensor for measuring the temperature of the fluid, and in that the one or more control means are configured to control the heating means and/or the belt pressure and/or the contact time on the basis of the measured outer periphery temperature and the measured fluid temperature.
A laundry treating apparatus comprising: a cabinet provided with a receiving space in which laundry is received; a door having an inner side ; a supply unit for supplying at least one of the air and water into the receiving space ; a presser provided in the receiving space to pressurize the laundry so as to remove a wrinkle of the laundry; and a clamp unit provided below the presser to pressure and fix the laundry before pressurizing the laundry by using the presser , wherein the clamp unit includes a compression unit for pressurizing the laundry, and a link , characterized in that the link has one end connected to the compression unit , and the other end rotatably connected to the inner circumference of the receiving space or the inner side of the door by a rotation unit , wherein the link is rotatably connected in a height direction of the laundry treating apparatus, wherein a rotational shaft of the link is provided in parallel with the ground, so that an interval between the compression unit and the inner circumference of the receiving space or the inner side of the door can be adjusted in accordance with the rotation of the link . a cabinet provided with a receiving space in which laundry is received; a door having an inner side ; a supply unit for supplying at least one of the air and water into the receiving space ; a presser provided in the receiving space to pressurize the laundry so as to remove a wrinkle of the laundry; and a clamp unit provided below the presser to pressure and fix the laundry before pressurizing the laundry by using the presser , wherein the clamp unit includes a compression unit for pressurizing the laundry, and a link , characterized in that the link has one end connected to the compression unit , and the other end rotatably connected to the inner circumference of the receiving space or the inner side of the door by a rotation unit , wherein the link is rotatably connected in a height direction of the laundry treating apparatus, wherein a rotational shaft of the link is provided in parallel with the ground, so that an interval between the compression unit and the inner circumference of the receiving space or the inner side of the door can be adjusted in accordance with the rotation of the link .
A method performed by a User Equipment, UE, the method comprising: - receiving , from a network node , via a higher layer, a configuration of at least one information element, IE, being an Uplink Transmission Configuration indication, UL-TCI IE, said configuration comprising at least: an identifier, ID, unique to each IE and ID(s) of one or more uplink, UL, resource(s) and/or downlink, DL resource(s): a Channel State Information Reference Signal, CSI-RS, resource, a Sounding Reference Signal, SRS, resource, or a Synchronization Signal Block, SSB, or a Control Resource Set, CORESET, - wherein the DL and/or UL resource(s) is/are used as a reference for the derivation of a pathloss factor for the transmission of at least a Physical Uplink Shared Channel, PUSCH, a Physical Uplink Control Channel, PUCCH, resource, or an SRS resource, and wherein the pathloss factor is used to obtain a transmit power for said PUSCH, PUCCH resource or SRS resource; and - applying the configuration provided in the at least one IE for the transmission of the PUSCH resource, the PUCCH resource or the SRS resource. - receiving , from a network node , via a higher layer, a configuration of at least one information element, IE, being an Uplink Transmission Configuration indication, UL-TCI IE, said configuration comprising at least: an identifier, ID, unique to each IE and ID(s) of one or more uplink, UL, resource(s) and/or downlink, DL resource(s): a Channel State Information Reference Signal, CSI-RS, resource, a Sounding Reference Signal, SRS, resource, or a Synchronization Signal Block, SSB, or a Control Resource Set, CORESET, - wherein the DL and/or UL resource(s) is/are used as a reference for the derivation of a pathloss factor for the transmission of at least a Physical Uplink Shared Channel, PUSCH, a Physical Uplink Control Channel, PUCCH, resource, or an SRS resource, and wherein the pathloss factor is used to obtain a transmit power for said PUSCH, PUCCH resource or SRS resource; and - applying the configuration provided in the at least one IE for the transmission of the PUSCH resource, the PUCCH resource or the SRS resource.
Cantilever lift for arranging in the rear region of a vehicle, with a loading platform which is preferably formed from a plurality of loading platform parts which can be folded up, a lifting mechanism for pivoting, raising and lowering the loading platform , and rails which are fastenable to the chassis , in particular to parallel longitudinal members thereof, and on which the lifting mechanism together with the loading platform is movable between an inoperative position and a use position, wherein the parallel rails running in the direction of travel of the vehicle are fastenable to the chassis of the vehicle at a plurality of over the longitudinal direction of each rail at least partially by clamping, characterized in that at least each rail is fastened to the chassis of the vehicle in the region of an end region lying in front in the direction of travel by clamping, and at least the rear ends of each rail are connected to the chassis not by clamping, but rather in a conventional manner by screws.
An electricity storage device, comprising: a positive electrode having an electrode, comprising: a conductive support; and an electricity storage layer provided on the conductive support and containing an electricity storage material, containing a polymerization product; a negative electrode containing a negative electrode active substance capable of occluding and releasing lithium ion; and an electrolytic solution containing a salt formed of the lithium ion and an anion and filling an area between the positive electrode and the negative electrode, wherein the electricity storage device is characterized in that the polymerization product has a tetrachalcogenofulvalene structure in a repeat unit of a main chain, and the tetrachalcogenofulvalene structure is contained in the main chain of the polymerization product. a positive electrode having an electrode, comprising: a conductive support; and an electricity storage layer provided on the conductive support and containing an electricity storage material, containing a polymerization product; a conductive support; and an electricity storage layer provided on the conductive support and containing an electricity storage material, containing a polymerization product; a negative electrode containing a negative electrode active substance capable of occluding and releasing lithium ion; and an electrolytic solution containing a salt formed of the lithium ion and an anion and filling an area between the positive electrode and the negative electrode,
Method for protecting data in a data memory against an undetected change, wherein a functional variable x present as a floating-point number is encoded by means of a value value x , an input constant A, an input signature B x and a timestamp D into a coded variable x c according to the formula x c : = value x * A + B x + D , and stored in the data memory, wherein the functional variable x is normalised relative to a base Base x in order to form the integer value value x from said functional variable x present as a floating-point number, characterised in that the value value x is calculated according to the formula value x : = x / Base x mod 2 Sizex , where Sizex is the size of the available memory, or the value value x is calculated according to the formula value x : = x − min x / Base x mod 2 Sizex , where min x is a predefined minimum value of x.