mhurhangee/ep-ind-claims huggingface dataset:
A heat transfer device, comprising: a first disc defining an aperture and comprising a pin cooling structure extending from around the aperture, the pin cooling structure comprising: a distal end configured to facilitate heat exchange between the pin cooling structure and an external body; and one or more side walls, wherein at least one of the one or more side walls, the distal end, and the aperture at least partially define an internal pin volume; a second disc positioned adjacent to the first disc and defining an inlet, wherein the inlet is configured to: receive a fluid; and allow the fluid to flow from the inlet and into the internal pin volume; at least one spacer positioned between the first disc and the second disc; and wherein a fluid channel is defined between the first disc and the second disc, and wherein the fluid channel is in fluid communication with the internal pin volume. a first disc defining an aperture and comprising a pin cooling structure extending from around the aperture, the pin cooling structure comprising: a distal end configured to facilitate heat exchange between the pin cooling structure and an external body; and one or more side walls, wherein at least one of the one or more side walls, the distal end, and the aperture at least partially define an internal pin volume; a distal end configured to facilitate heat exchange between the pin cooling structure and an external body; and one or more side walls, wherein at least one of the one or more side walls, the distal end, and the aperture at least partially define an internal pin volume; a second disc positioned adjacent to the first disc and defining an inlet, wherein the inlet is configured to: receive a fluid; and allow the fluid to flow from the inlet and into the internal pin volume; at least one spacer positioned between the first disc and the second disc; and wherein a fluid channel is defined between the first disc and the second disc, and wherein the fluid channel is in fluid communication with the internal pin volume. receive a fluid; and allow the fluid to flow from the inlet and into the internal pin volume; at least one spacer positioned between the first disc and the second disc; and wherein a fluid channel is defined between the first disc and the second disc, and wherein the fluid channel is in fluid communication with the internal pin volume.
A compression system of a vibrating press for producing a construction element, comprising: - at least one compression actuator of the construction element; - at least one displacement actuator arranged to displace the compression actuator between a standby area and a working area; the compression actuator being arranged to exert a compressive force on the construction element in the working area; and the compression actuator having a first stroke value, the displacement actuator having a second stroke value, the second stroke value being larger than the first stroke value, the compression actuator being arranged to exert the compressive force within a range of compressive forces, the displacement actuator being arranged to exert a displacement force within a range of displacement forces, the range of displacement forces being lower than the range of compressive forces. - at least one compression actuator of the construction element; - at least one displacement actuator arranged to displace the compression actuator between a standby area and a working area;
A microfluidic device with a capillary driven plasma separation means, comprising a porous membrane (110, 310) with an upper surface adapted to receive a blood sample and a lower surface, a laterally extending support structure having a hydrophilic surface, wherein the lower surface of the porous membrane and the hydrophilic surface of the support structure are configured so that the surfaces intersect in an acute angle and that a lateral capillary flow of filtered fluid is formed in the proximity of the intersection of the surfaces, thereby gradually filling the space between said diverging surfaces, and a capillary channel (120, 320) configured to receive and accommodate the lateral capillary flow arriving from the space between the diverging surfaces, the capillary channel comprising a channel cover and a channel bottom from the laterally extending support structure, wherein a part of the lower surface of the porous membrane is arranged on top of the channel cover, wherein the porous membrane diagonally extends between the channel bottom and the channel cover forming a capillary wedge structure (130, 330)).
A method performed by a user equipment, comprising: receiving in one or more system information blocks instances of system information from a network node, wherein the instances of system information comprise at least one of legacy system information or enhanced machine-type communication system information in the one or more system information blocks; and characterized by: determining which of the received instances of system information to use based on radio quality and/or power measurements including at least one of reference signal received power, received signal strength indication, or reference signal received quality. receiving in one or more system information blocks instances of system information from a network node, wherein the instances of system information comprise at least one of legacy system information or enhanced machine-type communication system information in the one or more system information blocks; and characterized by: determining which of the received instances of system information to use based on radio quality and/or power measurements including at least one of reference signal received power, received signal strength indication, or reference signal received quality.
A method of separating impurities from a natural gas stream, comprising: separating carbon dioxide (CO 2) and hydrogen sulfide (H 2 S) from the natural gas stream in a membrane separation system, thereby creating a partially-treated gas stream and a permeate gas stream, the permeate gas stream being comprised primarily of H 2 S and CO 2 and the partially-treated gas stream being comprised primarily of natural gas, wherein the partially-treated gas stream and the permeate gas stream are at a lower temperature than the natural gas stream; contacting the partially-treated gas stream with a first lean solvent stream comprising a hindered amine in a first contactor to separate H 2 S from the partially-treated gas stream, thereby producing a first rich solvent stream and a fully-treated gas stream; contacting the permeate gas stream with a second lean solvent stream comprising a hindered amine in a second contactor to separate H 2 S therefrom to produce a second rich solvent stream and a CO 2 gas stream; and removing H 2 S and CO 2 from the first and second rich solvent streams, thereby producing the first and second lean solvent streams. separating carbon dioxide (CO 2) and hydrogen sulfide (H 2 S) from the natural gas stream in a membrane separation system, thereby creating a partially-treated gas stream and a permeate gas stream, the permeate gas stream being comprised primarily of H 2 S and CO 2 and the partially-treated gas stream being comprised primarily of natural gas, wherein the partially-treated gas stream and the permeate gas stream are at a lower temperature than the natural gas stream; contacting the partially-treated gas stream with a first lean solvent stream comprising a hindered amine in a first contactor to separate H 2 S from the partially-treated gas stream, thereby producing a first rich solvent stream and a fully-treated gas stream; contacting the permeate gas stream with a second lean solvent stream comprising a hindered amine in a second contactor to separate H 2 S therefrom to produce a second rich solvent stream and a CO 2 gas stream; and removing H 2 S and CO 2 from the first and second rich solvent streams, thereby producing the first and second lean solvent streams.
A method for determining, by means of a computation and control unit, the blood recirculation in a vascular access of a patient whose blood is subjected to a treatment by means of an extracorporeal blood treatment system, the latter comprising: - a dialyzer with semi-permeable membrane for blood treatment, connected to the patient by means of an extracorporeal circuit; - an arterial line interconnecting the vascular access with an inlet of dialyzer, - a venous line interconnecting an outlet of the dialyzer with the vascular access, - a blood pump for circulating blood in the dialyzer; - a ultrafiltration pump for inducing a filtration of plasma water through the membrane of the dialyzer; - a sensor for determining a significant parameter of blood concentration in the dialyzer, arranged on the arterial line; - a computation and control unit for receiving information sent by the sensor, characterized in that the computation and control unit specifically allows to: - drive the blood pump so as to circulate the patient's blood in the dialyzer; - drive the ultrafiltration pump so as to induce by means of a filtration of plasma water through the membrane a momentary variation of blood concentration in the dialyzer by momentarily reducing or increasing the proportion of blood plasma water circulating in the membrane apparatus, - store the determined values of a significant parameter of blood concentration in the arterial line as measured by the sensor arranged on the arterial line; and - calculate blood recirculation on the basis of the measured values of the parameter. - a dialyzer with semi-permeable membrane for blood treatment, connected to the patient by means of an extracorporeal circuit; - an arterial line interconnecting the vascular access with an inlet of dialyzer, - a venous line interconnecting an outlet of the dialyzer with the vascular access, - a blood pump for circulating blood in the dialyzer; - a ultrafiltration pump for inducing a filtration of plasma water through the membrane of the dialyzer; - a sensor for determining a significant parameter of blood concentration in the dialyzer, arranged on the arterial line; - a computation and control unit for receiving information sent by the sensor, characterized in that the computation and control unit specifically allows to: - drive the blood pump so as to circulate the patient's blood in the dialyzer; - drive the ultrafiltration pump so as to induce by means of a filtration of plasma water through the membrane a momentary variation of blood concentration in the dialyzer by momentarily reducing or increasing the proportion of blood plasma water circulating in the membrane apparatus, - store the determined values of a significant parameter of blood concentration in the arterial line as measured by the sensor arranged on the arterial line; and - calculate blood recirculation on the basis of the measured values of the parameter.
An electronic device comprising: a housing; a plurality of batteries arranged in the housing; a power management module configured to control the plurality of batteries; a plurality of current limiting integrated circuits (ICs) configured to limit a maximum intensity of a current flowing into each of the plurality of batteries; and at least one processor operationally connected to the plurality of batteries, the power management module and the plurality of current limiting ICs, wherein the at least one processor is configured to: set a total charging current output from the power management module, set an individual charging current flowing into each of the plurality of batteries in proportion to a total capacity of each of the plurality of batteries regardless of current remaining capacities of the plurality of batteries, and recalculate the individual charging currents for each of the plurality of batteries in real-time whenever the total charging current changes with an event during charging the plurality of batteries. a housing; a plurality of batteries arranged in the housing; a power management module configured to control the plurality of batteries; a plurality of current limiting integrated circuits (ICs) configured to limit a maximum intensity of a current flowing into each of the plurality of batteries; and at least one processor operationally connected to the plurality of batteries, the power management module and the plurality of current limiting ICs, wherein the at least one processor is configured to: set a total charging current output from the power management module, set an individual charging current flowing into each of the plurality of batteries in proportion to a total capacity of each of the plurality of batteries regardless of current remaining capacities of the plurality of batteries, and recalculate the individual charging currents for each of the plurality of batteries in real-time whenever the total charging current changes with an event during charging the plurality of batteries. set a total charging current output from the power management module, set an individual charging current flowing into each of the plurality of batteries in proportion to a total capacity of each of the plurality of batteries regardless of current remaining capacities of the plurality of batteries, and recalculate the individual charging currents for each of the plurality of batteries in real-time whenever the total charging current changes with an event during charging the plurality of batteries.
A controller for controlling a multi-path mobile communication flow, comprising: a processor configured to: receive Internet Protocol, IP, flow association information from a source of a multipath-IP-flow, wherein the IP flow association information indicates at least two associated sub-flows of a multi-path protocol originating from said source to a destination, wherein a first associated sub-flow is associated with a first Radio Access Technology, RAT, of the multi-path mobile communication flow, and a second associated sub-flow is associated with a second RAT of the multi-path mobile communication flow, wherein the first RAT and the second RAT are different RATs; characterized in that the processor is configured to determine based on the flow association information that the first associated sub-flow and the second associated sub-flow share a router; modify a routing table for the multi-path mobile communication flow so that the first associated sub-flow uses a different router; and send the modified routing table to at least one router upstream from the shared router. receive Internet Protocol, IP, flow association information from a source of a multipath-IP-flow, wherein the IP flow association information indicates at least two associated sub-flows of a multi-path protocol originating from said source to a destination, wherein a first associated sub-flow is associated with a first Radio Access Technology, RAT, of the multi-path mobile communication flow, and a second associated sub-flow is associated with a second RAT of the multi-path mobile communication flow, wherein the first RAT and the second RAT are different RATs; characterized in that the processor is configured to determine based on the flow association information that the first associated sub-flow and the second associated sub-flow share a router; modify a routing table for the multi-path mobile communication flow so that the first associated sub-flow uses a different router; and send the modified routing table to at least one router upstream from the shared router.
A conveyor for transporting a product, the product being preferably in the form of articles of the tissue industry, the conveyor comprising: - a conveyor belt; - means for supporting and guiding the endless conveyor belt, the belt having articulated links and including at least one positive stretch, for transporting the product, and a return stretch; - means for driving the conveyor belt; - means for engaging the respective link of the conveyor belt the means for engaging and driving the conveyor belt being adapted to engage a respective longitudinal stretch (13") of the conveyor belt itself; the means for engaging including a respective engagement tooth, being inserted into a corresponding cavity defined between corresponding articulation cores of adjacent links of the conveyor belt; the respective engagement tooth having a front face which includes a front portion for engaging and driving a corresponding rear-facing surface of the articulation core of the respective link of the conveyor belt; wherein the front portion of the front face of the engagement tooth extends planarly and, when in an engaged condition, extends perpendicularly to a product transporting surface of the conveyor belt; wherein the front face of the engagement tooth has a perpendicularly external portion (311"), which is inclinedly recessed relative to the front engagement portion of the front face, to facilitate disengagement of the engagement tooth of the conveyor belt link, characterized in that the engagement tooth has a rear face which is shaped differently from the respective front face. - a conveyor belt; - means for supporting and guiding the endless conveyor belt, the belt having articulated links and including at least one positive stretch, for transporting the product, and a return stretch; - means for driving the conveyor belt; - means for engaging the respective link of the conveyor belt the means for engaging and driving the conveyor belt being adapted to engage a respective longitudinal stretch (13") of the conveyor belt itself; the means for engaging including a respective engagement tooth, being inserted into a corresponding cavity defined between corresponding articulation cores of adjacent links of the conveyor belt; the respective engagement tooth having a front face which includes a front portion for engaging and driving a corresponding rear-facing surface of the articulation core of the respective link of the conveyor belt; wherein the front portion of the front face of the engagement tooth extends planarly and, when in an engaged condition, extends perpendicularly to a product transporting surface of the conveyor belt;
A vehicle comprising at least two vehicle parts (2, 3) articulately connected with each other, e.g. a tramway or a bus, wherein a cover (20, 30) is provided for covering a gap between the two vehicle parts (2, 3), the cover being elastically resilient, wherein the cover made of a fabric is connected with at least one profile, characterized in that for a detachable connection of the cover made of a fabric with the at least one profile, the profile comprises a groove, wherein the cover enclosed in the groove is fixed there by means of a keder, wherein the at least one profile can be attached to any place of the cover.
A non-linear resistive element (10, 20), comprising: a varistor layer (13, 23) in a sheet form having two main faces; and conductive electrode layers (14, 24, 25) joined to the main faces of the varistor layer (13, 23), wherein the varistor layer (13, 23) includes: a plurality of adjacent small varistor pieces that are made of a ceramic sintered body and are spaced from one another and are aligned in an alignment direction without being overlaid in a direction perpendicular to the alignment direction, each small varistor piece having a surface and a rear face coinciding with the main faces of the varistor layer (13, 23), respectively; and insulating junctions that join the adjacent small varistor pieces, characterized in that the main faces of the varistor layer (13, 23) are parallel to each other and that the insulating junctions are made of synthetic resin having elasticity.
A cryoapplicator for minimally invasive surgical cardiac ablation consisting of: a fastening part, a pin extending along a longitudinal axis and having a first end and a second end, an insulation part, and a pre-bent effector tip, wherein the pin is connected with the fastening part on the first end, and with the effector tip on the second end, wherein the effector tip is pre-bent by 60° to 90° angle along a first plane relative to the pin longitudinal axis, and by 5° to 60° angle along a second plane relative to said longitudinal axis, wherein the second plane is different from the first plane, wherein said insulation part is comprised of a thermal insulation cover located on the pin in a slideable relationship along said longitudinal axis of said pin, said thermal insulation cover being shorter than said pin, and wherein said pin and said pre-bent effector tip are collectively rotatable such that said pin is rotatable within said insulating part. a fastening part, a pin extending along a longitudinal axis and having a first end and a second end, an insulation part, and a pre-bent effector tip, wherein the pin is connected with the fastening part on the first end, and with the effector tip on the second end, wherein the effector tip is pre-bent by 60° to 90° angle along a first plane relative to the pin longitudinal axis, and by 5° to 60° angle along a second plane relative to said longitudinal axis, wherein the second plane is different from the first plane, wherein said insulation part is comprised of a thermal insulation cover located on the pin in a slideable relationship along said longitudinal axis of said pin, said thermal insulation cover being shorter than said pin, and wherein said pin and said pre-bent effector tip are collectively rotatable such that said pin is rotatable within said insulating part.
An independently controllable dual chamber ultra low temperature freezer system comprising: a cascade heat exchanger (26, 53) thermodynamically connected to a high-stage circuit, a first low-stage circuit and a second low-stage circuit, wherein said first low-stage circuit is connected to a first freezer chamber and said second low-stage circuit is connected to a second freezer chamber; means for splitting a refrigerant stream after oil separation occurs into a first and a second low-stage circuit; first valving means for controlling the flow of the split refrigerant stream into the cascade heat exchanger (26, 53); means for passing the split refrigerant stream through a first and a second expansion control device (34, 35, 42, 43) and a first and a second evaporator (31, 32, 50, 51), respectively; second valving means for controlling the migration of the split refrigerant stream; means for recombining the split refrigerant stream after passing through said first and said second evaporators; and means for compressing the recombined refrigerant stream (30, 47). a cascade heat exchanger (26, 53) thermodynamically connected to a high-stage circuit, a first low-stage circuit and a second low-stage circuit, wherein said first low-stage circuit is connected to a first freezer chamber and said second low-stage circuit is connected to a second freezer chamber; means for splitting a refrigerant stream after oil separation occurs into a first and a second low-stage circuit; first valving means for controlling the flow of the split refrigerant stream into the cascade heat exchanger (26, 53); means for passing the split refrigerant stream through a first and a second expansion control device (34, 35, 42, 43) and a first and a second evaporator (31, 32, 50, 51), respectively; second valving means for controlling the migration of the split refrigerant stream; means for recombining the split refrigerant stream after passing through said first and said second evaporators; and means for compressing the recombined refrigerant stream (30, 47).