mhurhangee/ep-ind-claims huggingface dataset:
A sound source, comprising: a first gas filled underwater resonator; a second gas filled underwater resonator connected to the first resonator (1502, 1602, 2802); and at least one excitation member (1506, 1606, 2806) configured to excite the first resonator (1502, 1602, 2802) and the second resonator (1504, 1604, 2804); characterised in that: the first resonator comprises a bubble resonator (1502, 1602, 2802); wherein the second resonator comprises a Helmholtz resonator, and wherein a throat (1514, 1614, 2814) of the Helmholtz resonator (1504, 1604, 2804) extends into the first resonator (1502, 1602, 2802); the first resonator (1502, 1602, 2802) is permanently tuned to produce a first resonant frequency upon excitation by the at least one excitation member (1506, 1606, 2806); wherein the second resonator (1504, 1604, 2804) is permanently tuned to produce a second resonant frequency upon excitation by the at least one excitation member (1506, 1606, 2806); and in that the first resonant frequency is different from the second resonant frequency. a first gas filled underwater resonator; a second gas filled underwater resonator connected to the first resonator (1502, 1602, 2802); and at least one excitation member (1506, 1606, 2806) configured to excite the first resonator (1502, 1602, 2802) and the second resonator (1504, 1604, 2804); characterised in that: the first resonator comprises a bubble resonator (1502, 1602, 2802); wherein the second resonator comprises a Helmholtz resonator, and wherein a throat (1514, 1614, 2814) of the Helmholtz resonator (1504, 1604, 2804) extends into the first resonator (1502, 1602, 2802); the first resonator (1502, 1602, 2802) is permanently tuned to produce a first resonant frequency upon excitation by the at least one excitation member (1506, 1606, 2806); wherein the second resonator (1504, 1604, 2804) is permanently tuned to produce a second resonant frequency upon excitation by the at least one excitation member (1506, 1606, 2806); and in that the first resonant frequency is different from the second resonant frequency. the first resonator comprises a bubble resonator (1502, 1602, 2802); wherein the second resonator comprises a Helmholtz resonator, and wherein a throat (1514, 1614, 2814) of the Helmholtz resonator (1504, 1604, 2804) extends into the first resonator (1502, 1602, 2802); the first resonator (1502, 1602, 2802) is permanently tuned to produce a first resonant frequency upon excitation by the at least one excitation member (1506, 1606, 2806); wherein the second resonator (1504, 1604, 2804) is permanently tuned to produce a second resonant frequency upon excitation by the at least one excitation member (1506, 1606, 2806); and in that the first resonant frequency is different from the second resonant frequency.
A method of communicating information (11,11') comprising: dividing the information into at least a first information portion and a second information portion; modulation of a plurality of domain subunits (F1-F8, T1-T4, f1-f4, t1-t4, s1-s4) to encode the first information portion using an index or grammar; and encoding the second information portion by modulation of domain subunits belonging to a subset of the plurality of domain subunits; characterized in that modulation of the plurality of domain subunits to encode the first information portion comprises allocating at least two different modulation types (M1, M2) to the plurality of domain subunits and the plurality of domain subunits comprise domain subunits of two or more domains. dividing the information into at least a first information portion and a second information portion; modulation of a plurality of domain subunits (F1-F8, T1-T4, f1-f4, t1-t4, s1-s4) to encode the first information portion using an index or grammar; and encoding the second information portion by modulation of domain subunits belonging to a subset of the plurality of domain subunits; characterized in that modulation of the plurality of domain subunits to encode the first information portion comprises allocating at least two different modulation types (M1, M2) to the plurality of domain subunits and the plurality of domain subunits comprise domain subunits of two or more domains.
An apparatus employed in an access terminal in a wireless communication using a multicarrier system, the apparatus comprising: means for determining an uplink anchor carrier to provide channel quality indicator, CQI, feedback for a plurality of downlink carriers; means for determining that the CQI feedback for all downlink carriers of the plurality of downlink carriers is configured separately based on corresponding upper layer CQI feedback configurations for the different downlink carriers, wherein each corresponding upper layer CQI feedback configuration comprises a set of configuration parameters for providing the CQI feedback, means for grouping the CQI feedback for multiple carriers of the plurality of downlink carriers based on transmission mode of the plurality of downlink carriers, wherein the same CQI configuration within a group is applied; means for determining, when reporting the separately configured CQI feedback for the different downlink carriers of the plurality of downlink carriers on the uplink anchor carrier, a collision between a rank indicator and the CQI feedback; means for dropping the CQI feedback based at least in part on the determining the collision. means for determining an uplink anchor carrier to provide channel quality indicator, CQI, feedback for a plurality of downlink carriers; means for determining that the CQI feedback for all downlink carriers of the plurality of downlink carriers is configured separately based on corresponding upper layer CQI feedback configurations for the different downlink carriers, wherein each corresponding upper layer CQI feedback configuration comprises a set of configuration parameters for providing the CQI feedback, means for grouping the CQI feedback for multiple carriers of the plurality of downlink carriers based on transmission mode of the plurality of downlink carriers, wherein the same CQI configuration within a group is applied; means for determining, when reporting the separately configured CQI feedback for the different downlink carriers of the plurality of downlink carriers on the uplink anchor carrier, a collision between a rank indicator and the CQI feedback; means for dropping the CQI feedback based at least in part on the determining the collision.
A method for a first network node of a first wireless network of ensuring validity of a service request, the method comprising: - receiving, from a second network node of a second wireless network, a first piece of information relating to a destination identifier of the service request, wherein the service comprises a circuit switched fallback call provided by the first wireless network; - receiving, from a communication device, a request for the service, the request comprising a second piece of information relating to the destination identifier, and - determining the service request to be valid if establishing a correspondence of the first piece of information with the second piece of information, else determining the service request to be invalid. - receiving, from a second network node of a second wireless network, a first piece of information relating to a destination identifier of the service request, wherein the service comprises a circuit switched fallback call provided by the first wireless network; - receiving, from a communication device, a request for the service, the request comprising a second piece of information relating to the destination identifier, and - determining the service request to be valid if establishing a correspondence of the first piece of information with the second piece of information, else determining the service request to be invalid.
A computing apparatus for providing a hardware-assisted virtual switch on a host, the apparatus comprising: a hardware virtual switch, vSwitch, circuit that is provisioned and allocated by a hypervisor; and a hardware virtual host, vHost, circuit, the vHost circuit having an interface driver specific to the hardware vSwitch and configured to provide a vHost data plane to: provide a plurality of hardware queues to communicatively couple the hardware vSwitch to a guest virtual function, VF of a virtual machine, VM (404, 644), that is provisioned and allocated by the hypervisor; and present to a virtual network driver of the guest VF an interface that is backward compatible with a software network interface by making the host comprising the hardware vSwitch appear identical to a host with a software vSwitch. a hardware virtual switch, vSwitch, circuit that is provisioned and allocated by a hypervisor; and a hardware virtual host, vHost, circuit, the vHost circuit having an interface driver specific to the hardware vSwitch and configured to provide a vHost data plane to: provide a plurality of hardware queues to communicatively couple the hardware vSwitch to a guest virtual function, VF of a virtual machine, VM (404, 644), that is provisioned and allocated by the hypervisor; and present to a virtual network driver of the guest VF an interface that is backward compatible with a software network interface by making the host comprising the hardware vSwitch appear identical to a host with a software vSwitch. provide a plurality of hardware queues to communicatively couple the hardware vSwitch to a guest virtual function, VF of a virtual machine, VM (404, 644), that is provisioned and allocated by the hypervisor; and present to a virtual network driver of the guest VF an interface that is backward compatible with a software network interface by making the host comprising the hardware vSwitch appear identical to a host with a software vSwitch.
A method of manufacturing a placental product comprising the steps of: a. selectively depleting the chorionic membrane of a placenta of at least 50% of one or more types of immunogenic cells, wherein i. the one or more types of immunogenic cells comprise trophoblasts, functional CD 14+ macrophages, or both trophoblasts and functional CD14+ macrophage; and ii. the step of selective depletion does not comprise killing or removing all native therapeutic cells selected from MSCs, fibroblasts, stromal cells, and a combination thereof; and iii. optionally, removing all vascularized tissue or vascularized tissue-derived immunogenic cells from the placenta, or chorionic membrane thereof; thereby providing a chorionic membrane, wherein the chorionic membrane comprises viable therapeutic cells, wherein the viable therapeutic cells are native to the chorionic membrane and are one or more of mesenchymal stem cells ("MSCs"); fibroblasts; and stromal cells; and b. cryopreserving the chorionic membrane in a cryopreservation medium. a. selectively depleting the chorionic membrane of a placenta of at least 50% of one or more types of immunogenic cells, wherein i. the one or more types of immunogenic cells comprise trophoblasts, functional CD 14+ macrophages, or both trophoblasts and functional CD14+ macrophage; and ii. the step of selective depletion does not comprise killing or removing all native therapeutic cells selected from MSCs, fibroblasts, stromal cells, and a combination thereof; and iii. optionally, removing all vascularized tissue or vascularized tissue-derived immunogenic cells from the placenta, or chorionic membrane thereof; thereby providing a chorionic membrane, wherein the chorionic membrane comprises viable therapeutic cells, wherein the viable therapeutic cells are native to the chorionic membrane and are one or more of mesenchymal stem cells ("MSCs"); fibroblasts; and stromal cells; and i. the one or more types of immunogenic cells comprise trophoblasts, functional CD 14+ macrophages, or both trophoblasts and functional CD14+ macrophage; and ii. the step of selective depletion does not comprise killing or removing all native therapeutic cells selected from MSCs, fibroblasts, stromal cells, and a combination thereof; and iii. optionally, removing all vascularized tissue or vascularized tissue-derived immunogenic cells from the placenta, or chorionic membrane thereof; b. cryopreserving the chorionic membrane in a cryopreservation medium.
A vehicle door comprising a door opening and closing device for a vehicle, including a door handle that is attached to a door outer panel constituting the vehicle door and that extends in front and rear directions of the vehicle, wherein the door outer panel includes an outer surface, wherein the door handle comprises: a grip that protrudes outward and defines a space between the outer surface of the door outer panel and the grip to allow gripping by a user, wherein the grip includes an outer surface and an operation surface opposing the outer surface of the door outer panel; and a deflective portion located at an end of the grip and extending from the outer surface of the grip along the outer surface of the door outer panel in a direction crossing front and rear directions of the vehicle to direct air flow flowing along the outer surface of the door outer panel to flow through at least the space of the grip to the operation surface. a grip that protrudes outward and defines a space between the outer surface of the door outer panel and the grip to allow gripping by a user, wherein the grip includes an outer surface and an operation surface opposing the outer surface of the door outer panel; and a deflective portion located at an end of the grip and extending from the outer surface of the grip along the outer surface of the door outer panel in a direction crossing front and rear directions of the vehicle to direct air flow flowing along the outer surface of the door outer panel to flow through at least the space of the grip to the operation surface.
A method for assessing a subject's risk of having a cardiovascular disease comprising the step of measuring the level of inhibitor factor 1 in a body fluid sample obtained from said subject wherein the level of IF1 is negatively correlated with the risk of said subject of having a cardiovascular disease.
A method for treating polymer particles with steam in a steaming vessel downstream a polymerization process, the method comprising contacting polymer particles with a counter-current flow of steam, wherein the flow rate of steam entering said steaming vessel is continuously maintained proportional to the production rate of said polymer in said polymerization process and to the gradient between the temperature ( T out) of the polymer exiting said steaming vessel and the temperature ( T in) of the polymer entering said steaming vessel, the method further comprising: - means for detecting said polymer production rate, said outlet temperature T out and said inlet temperature T in, - control means for adjusting said flow rate of steam according to the value calculated by means of the equation F sream = K · Fp · ΔT polymer, wherein: F steam = flow rate (Kg/h) of steam entering the steaming vessel; Fp = flow rate (Kg/h) of polymer introduced at the top of the steaming vessel; ΔT polymer = T out -T in (°C) K(°C) -1 = multiplicative constant of the steam flow rate - means for detecting said polymer production rate, said outlet temperature T out and said inlet temperature T in, - control means for adjusting said flow rate of steam according to the value calculated by means of the equation F sream = K · Fp · ΔT polymer, wherein: F steam = flow rate (Kg/h) of steam entering the steaming vessel; Fp = flow rate (Kg/h) of polymer introduced at the top of the steaming vessel; ΔT polymer = T out -T in (°C) K(°C) -1 = multiplicative constant of the steam flow rate F steam = flow rate (Kg/h) of steam entering the steaming vessel; Fp = flow rate (Kg/h) of polymer introduced at the top of the steaming vessel; ΔT polymer = T out -T in (°C) K(°C) -1 = multiplicative constant of the steam flow rate
A control apparatus for an internal combustion engine in which selective use is made of a case where a first fuel, being easy to be ignited, is singly caused to combust, and a case where a second fuel, being hard to be ignited, is also caused to combust by igniting said first fuel, wherein the first fuel is injected in a cylinder in two steps of a pilot injection and a main injection which is carried out after the pilot injection, and the second fuel is mixed with intake air before the pilot injection of said first fuel, said apparatus comprising: an acquisition unit configured to acquire a combustion state of said second fuel in the case where said second fuel is also caused to combust by igniting said first fuel, from an amount of heat generated in a period of time between the pilot injection of said first fuel and the main injection of said first fuel, wherein the amount of heat is determined based on internal pressure of the cylinder; and a decision unit configured to decide that the combustion state of said second fuel is good, and to decrease the amount of supply of the main injection of said first fuel and at the same time to increase the amount of supply of said second fuel, in cases where the amount of generated heat in a period of time between said pilot injection and said main injection acquired by said acquisition unit is equal to or more than a reference amount of generated heat, and further configured to decide that the combustion state of said second fuel is not good, and to increase the amount of supply of the main injection of said first fuel and at the same time to decrease the amount of supply of said second fuel, in cases where the amount of generated heat between said pilot injection and said main injection acquired by said acquisition unit is less than the reference amount of generated heat. an acquisition unit configured to acquire a combustion state of said second fuel in the case where said second fuel is also caused to combust by igniting said first fuel, from an amount of heat generated in a period of time between the pilot injection of said first fuel and the main injection of said first fuel, wherein the amount of heat is determined based on internal pressure of the cylinder; and a decision unit configured to decide that the combustion state of said second fuel is good, and to decrease the amount of supply of the main injection of said first fuel and at the same time to increase the amount of supply of said second fuel, in cases where the amount of generated heat in a period of time between said pilot injection and said main injection acquired by said acquisition unit is equal to or more than a reference amount of generated heat, and further configured to decide that the combustion state of said second fuel is not good, and to increase the amount of supply of the main injection of said first fuel and at the same time to decrease the amount of supply of said second fuel, in cases where the amount of generated heat between said pilot injection and said main injection acquired by said acquisition unit is less than the reference amount of generated heat.
Door tray for a household refrigeration appliance, with a base body, which is configured to hold stored goods, and with an add-on part (28, 42, 43) that is separate from the base body and fastened to the base body, characterised in that the base body has an upper bracket that is oriented forward in such a manner that it faces away from a rear wall of the base body and a lower bracket arranged at a distance therefrom and oriented forward in such a manner that it faces away from the rear wall of the base body, wherein the separate add-on part (28, 42, 43) is fastened to the upper bracket and/or the lower bracket, and wherein the upper bracket has a bearing web (16, 17) on at least one bracket segment (13a, 13b) facing the rear wall, said bearing web (16, 17) widening toward one end (13c, 13d) of the bracket segment (13a, 13b), to make contact with a counterweb (32, 49) of the separate add-on part (28, 42) and/or the lower bracket has a bearing web (21, 22) on at least one bracket segment (14a, 14b) facing the rear wall, said bearing web (21, 22) widening toward one end (14c, 14d) of the bracket segment (14a, 14b) to make contact with a counterweb (33, 50) of the separate add-on part (28, 43), wherein either a first add-on part is a first clasp, which is tailored to the shape and dimensions of the upper bracket and fastened to the upper bracket, so that only the outside of the upper bracket is covered by the clasp and/or a second add-on part is a second clasp, which is tailored to the shape and dimensions of the lower bracket and fastened to the lower bracket, so that only the outside of the lower bracket is covered by the second clasp, or the add-on part is a visor, which is fastened to the upper bracket and the lower bracket and which covers a free space between the upper bracket and the lower bracket.
Contact for direct plug-in connection, with a joining portion for the joining of a cable strand, and a contact portion (28, 30, 32, 34) for producing electrical contact with a passage opening in a printed circuit board, and an introducing portion (36, 38) forming a free end of the contact, wherein the contact portion (28, 30, 32, 34) and the introducing portion (36, 38) are formed on a strip (20a, 20b, 22a, 22b) of flat sheet-metal material having two side edges (60, 62), a front side and a rear side, wherein a connecting portion (20, 22) is arranged between the joining portion and the contact portion (28, 30, 32, 34), wherein the connecting portion (20, 22), the contact portion (28, 30, 32, 34) and the introducing portion (36, 38) are formed from a strip of flat sheet-metal material, and wherein, on the front side or the rear side in the contact portion (28, 30, 32, 34), the strip (20a, 20b, 22a, 22b) has an in particular convex bulge (48a, 48b, 48c, 48d) for bearing against the inner side of the passage opening, characterized in that the bulge (48a, 48b, 48c, 48d) is spaced apart from the side edges (60, 62) of the strip (20a, 20b, 22a, 22b), and wherein, between the connecting portion (20, 22) and the contact portion (28, 30, 32, 34), the strip has a first bending point (44a, 44b, 44c, 44d) at which the strip is twisted.
A compact hydraulic module for providing a vehicle with drive power, comprising a housing in which a first and a second hydraulic motor are housed, mounted in opposition, one of the two motors being supported in rotation by the other, each motor comprising a distribution plate, a plate supporting floating cylinders, a plate axially holding the floating cylinders on the support plate, a plate and fixed pistons (6, 7) arranged between the plate and the floating cylinders and cooperating with them; said hydraulic motors converting the energy coming from a pressurised fluid into mechanical energy in the form of torque driving a differential, contained in the same housing, and wherein the output shafts are coupled to the drive wheels of the vehicle; said differential comprising an axial coupling member suitable for coupling the two hydraulic motors and configured to distribute the torque to the output shafts of the differential, wherein the differential is mounted in rotation inside the hydraulic motor, and the axis of rotation of the hydraulic motor coincides with the axis of rotation of the differential.