mhurhangee/patent-ind-claim-en huggingface dataset:
Use of an air purification and condensation water-production system, comprising at least one water-production device, wherein the water-production device comprises a unit body and a refrigeration system, the refrigeration system comprises evaporators and a condenser and comprising a water collection tank , the evaporators are arranged on the side faces of the unit body; the water collection tank is arranged at the bottom of the unit body and located below the evaporators , the condenser is arranged at the top of the unit body; outside air enters the unit body through the evaporators located on the side faces of the unit body and then is exhausted from air outlets in the top of the unit body through the condenser , the water-production device comprises a control unit, the control unit comprises a controller, a temperature sensor and a humidity sensor, and the output end of the temperature sensor and the output end of the humidity sensor are connected with the controller; the condenser comprises a plurality of fans, and a driving circuit of the fans is connected with the controller, characterized in that the controller determines the number of fans needing to be started according to data collected by the temperature sensor and the humidity sensor and the fans are driven by a variable frequency motor, and the controller adjusts the rotating speed of the fans according to data collected by the temperature sensor and the humidity sensor.
A cannula for intercostal access configured to be used for cardiac surgical procedures in conjunction with a suture placement system , comprising: a riser tube having a proximal end and a distal end, wherein the distal end is configured to be placed on a beating heart; and a circumferential organization template at the proximal end of the riser tube , comprising: a plurality of suture channels positioned around the circumferential organization template and configured to have various sutures passing through the cannula wrapped around; and a plurality of suture pinching slots positioned around the circumferential organization template and configured to hold various sutures passing through the cannula and wrapped around the suture channels ; characterized by a plurality of tube management grooves positioned around the circumferential organization template and configured to mount one or more tubes (64; 99) from the suture placement system (52; 99). a riser tube having a proximal end and a distal end, wherein the distal end is configured to be placed on a beating heart; and a circumferential organization template at the proximal end of the riser tube , comprising: a plurality of suture channels positioned around the circumferential organization template and configured to have various sutures passing through the cannula wrapped around; and a plurality of suture pinching slots positioned around the circumferential organization template and configured to hold various sutures passing through the cannula and wrapped around the suture channels ; characterized by a plurality of tube management grooves positioned around the circumferential organization template and configured to mount one or more tubes (64; 99) from the suture placement system (52; 99). a plurality of suture channels positioned around the circumferential organization template and configured to have various sutures passing through the cannula wrapped around; and a plurality of suture pinching slots positioned around the circumferential organization template and configured to hold various sutures passing through the cannula and wrapped around the suture channels ; characterized by a plurality of tube management grooves positioned around the circumferential organization template and configured to mount one or more tubes (64; 99) from the suture placement system (52; 99).
A unitized build assembly for a gas turbine engine , the unitized build assembly comprising: an exhaust duct ; a hot section with a locking structure, wherein the hot section comprises a combustor and a turbine section, the hot section at least partially circumferentially surrounding the exhaust duct ; and a compressor section having an interface structure, wherein the compressor section is proximal to the hot section and the hot section at least partially circumferentially surrounds at least part of the compressor section , wherein the locking structure is configured to engage the interface structure to limit movement of the hot section relative to the compressor section ; wherein the build assembly is manufactured using additive manufacturing techniques; and characterized by a plurality of removable support structures extending between the compressor section and the hot section . an exhaust duct ; a hot section with a locking structure, wherein the hot section comprises a combustor and a turbine section, the hot section at least partially circumferentially surrounding the exhaust duct ; and a compressor section having an interface structure, wherein the compressor section is proximal to the hot section and the hot section at least partially circumferentially surrounds at least part of the compressor section , wherein the locking structure is configured to engage the interface structure to limit movement of the hot section relative to the compressor section ; wherein the build assembly is manufactured using additive manufacturing techniques; and characterized by a plurality of removable support structures extending between the compressor section and the hot section .
A system for providing a prescribed amount of stimulation to a patient, the system comprising: an implantable stimulator device that is implantable in the patient and an external controller configured to control the implantable stimulator device , wherein the external controller is configured to: receive a prescription for stimulation from a clinician programmer , wherein the prescription quantifies a prescribed amount of stimulation that can be provided before an additional prescription is required for further stimulation, instruct the implantable stimulator device to provide stimulation, track the provided stimulation to determine an amount of provided stimulation, determine a difference between the prescribed amount of stimulation and the amount of provided stimulation, wherein the difference indicates the amount of stimulation remaining on the prescription, and when there is no stimulation remaining on the prescription, provide an indication prompting the patient to seek a further prescription from the clinician. receive a prescription for stimulation from a clinician programmer , wherein the prescription quantifies a prescribed amount of stimulation that can be provided before an additional prescription is required for further stimulation, instruct the implantable stimulator device to provide stimulation, track the provided stimulation to determine an amount of provided stimulation, determine a difference between the prescribed amount of stimulation and the amount of provided stimulation, wherein the difference indicates the amount of stimulation remaining on the prescription, and when there is no stimulation remaining on the prescription, provide an indication prompting the patient to seek a further prescription from the clinician.
A method of delivering a biological sample into a mass cytometry system, the method comprising: focusing a first laser spot onto a film supporting the biological sample to heat the film, wherein heating of the film lifts the biological sample into a gas phase without complete vaporization of the lifted biological sample, the gas phase configured to deliver the biological sample to the mass cytometry system.
3D printing with molten plastics to produce a moulded part using an extruder and applying the liquid plastics through a closable nozzle, the plastics being mixed with additives, additions and fillers, the melting occurring by liquefaction of the plastics in the extruder, characterized by a) the use of a planetary roller extruder b) the planetary roller extruder having a reduced conveying effect c) so that the extruder has a backflow/leakage flow of the melt at least when the nozzle is closed, d) an emerging melt strip or a melt thread or a melt strand or a melting point being produced. a) the use of a planetary roller extruder b) the planetary roller extruder having a reduced conveying effect c) so that the extruder has a backflow/leakage flow of the melt at least when the nozzle is closed, d) an emerging melt strip or a melt thread or a melt strand or a melting point being produced.
An indwelling catheter system for draining fluid from a body cavity of a subject defined by a parietal membrane and a visceral membrane, comprising: an indwelling catheter device comprising a catheter tube with a fenestrated distal end configured to reside in the cavity of the subject and a connection hub disposed on a proximal end of the catheter tube and configured to fluidically couple the catheter tube with a fluid drainage system; and a skin anchoring member having a through lumen for receipt of the catheter tube, an anchor element configured for anchoring to the skin of the subject, and a coupling element configured to couple the skin anchoring member to the connection hub , and characterised by further comprising a detachable ambulatory suction module configured for detachable attachment to the connection hub ; a fluid inlet configured for fluidic coupling to the catheter tube through the connection hub ; a fluid outlet configured for detachable fluidic coupling to a fluid drainage system to drain pleural fluid through the detachable ambulatory suction module; and an actuable closure configured to close the fluid outlet upon actuation, wherein the detachable ambulatory suction module is configured to exert a negative pressure in the catheter tube upon actuation of the closure. an indwelling catheter device comprising a catheter tube with a fenestrated distal end configured to reside in the cavity of the subject and a connection hub disposed on a proximal end of the catheter tube and configured to fluidically couple the catheter tube with a fluid drainage system; and a skin anchoring member having a through lumen for receipt of the catheter tube, an anchor element configured for anchoring to the skin of the subject, and a coupling element configured to couple the skin anchoring member to the connection hub , a detachable ambulatory suction module configured for detachable attachment to the connection hub ; a fluid inlet configured for fluidic coupling to the catheter tube through the connection hub ; a fluid outlet configured for detachable fluidic coupling to a fluid drainage system to drain pleural fluid through the detachable ambulatory suction module; and an actuable closure configured to close the fluid outlet upon actuation, wherein the detachable ambulatory suction module is configured to exert a negative pressure in the catheter tube upon actuation of the closure.
A plastic tube-like element for being connected to an opening in a wall , the tube like element comprising: - a tube portion extending from a first end to a second end ; - a collar portion surrounding the tube portion and generally radially extending from said tube portion in a first plane, said collar portion being positioned near but not abutting to the second end ; - a circumferential hinge portion connected to said second end of said tube portion and connected to - a circumferential lip portion , extending from said circumferential hinge portion at a first angle (α) larger than 30° with respect to said first plane; - wherein said circumferential hinge portion comprises an inner support surface projecting into a space defined by an axial projection of an inner surface of said tube portion; characterised in that said hinge portion is adapted to deform such that said circumferential lip portion is moving from an initial position (I) in which it extends at said first angle (α) with respect to said first plane to a final position (II) in which it extends parallel to said first plane, when said hinge portion is being heated to a predetermined temperature or temperature range in which said hinge portion becomes deformable; and when said inner support surface receives a predetermined uniform pressure exerted along an axial direction of said tube-like element . - a tube portion extending from a first end to a second end ; - a collar portion surrounding the tube portion and generally radially extending from said tube portion in a first plane, said collar portion being positioned near but not abutting to the second end ; - a circumferential hinge portion connected to said second end of said tube portion and connected to - a circumferential lip portion , extending from said circumferential hinge portion at a first angle (α) larger than 30° with respect to said first plane; - wherein said circumferential hinge portion comprises an inner support surface projecting into a space defined by an axial projection of an inner surface of said tube portion; characterised in that said hinge portion is adapted to deform such that said circumferential lip portion is moving from an initial position (I) in which it extends at said first angle (α) with respect to said first plane to a final position (II) in which it extends parallel to said first plane, when said hinge portion is being heated to a predetermined temperature or temperature range in which said hinge portion becomes deformable; and when said inner support surface receives a predetermined uniform pressure exerted along an axial direction of said tube-like element .
A method of producing a metal superalloy , comprising the steps of: - providing a charge of metal materials ; - melting said charge of metal materials in an electric-arc furnace to obtain a first melt of said charge of metal materials ; - solidifying said first melt to obtain first ingots ; - melting said first ingots in a VI.D.P. furnace to obtain a second melt ; - solidifying said second melt to obtain second ingots ; - melting said second ingots in a V.A.R. furnace to obtain a third melt ; - solidifying said third melt to obtain a metal superalloy ; characterized in that said charge of metal materials has a weight amount ranging from forty to sixty tons; and in that it comprises a step of A.O.D. treatment on said first melt to obtain a decarburized and refined first melt , said melting in the VI.D.P. furnace and said melting in the V.A.R. Furnace being carried out sequentially on said first and refined decarburized and refined first melt resulting from said A.O.D. treatment . - providing a charge of metal materials ; - melting said charge of metal materials in an electric-arc furnace to obtain a first melt of said charge of metal materials ; - solidifying said first melt to obtain first ingots ; - melting said first ingots in a VI.D.P. furnace to obtain a second melt ; - solidifying said second melt to obtain second ingots ; - melting said second ingots in a V.A.R. furnace to obtain a third melt ; - solidifying said third melt to obtain a metal superalloy ; characterized in that said charge of metal materials has a weight amount ranging from forty to sixty tons; and in that it comprises a step of A.O.D. treatment on said first melt to obtain a decarburized and refined first melt , said melting in the VI.D.P. furnace and said melting in the V.A.R. Furnace being carried out sequentially on said first and refined decarburized and refined first melt resulting from said A.O.D. treatment .
A computer implemented method to determine aircraft sensor failure and correct aircraft sensor measurement in an aircraft system, the computer implemented method being executed by a processor of an aircraft system controller and comprising: determining , using a physics-based high-fidelity model, a high-fidelity system response over selected operating conditions for a sensor of interest (106-114); the method characterized by creating , using an aircraft system controller , a reduced order model, ROM, using the high-fidelity system response, wherein the ROM correlates with the sensor of interest when operating normally; calculating , using the ROM, at least one reduced order sensor value; determining an error value between the reduced order sensor value and a sensor measurement reading from the sensor of interest; and comparing the error value to an error threshold, wherein the sensor of interest has failed when the error value is greater than the error threshold. determining , using a physics-based high-fidelity model, a high-fidelity system response over selected operating conditions for a sensor of interest (106-114); the method characterized by creating , using an aircraft system controller , a reduced order model, ROM, using the high-fidelity system response, wherein the ROM correlates with the sensor of interest when operating normally; calculating , using the ROM, at least one reduced order sensor value; determining an error value between the reduced order sensor value and a sensor measurement reading from the sensor of interest; and comparing the error value to an error threshold, wherein the sensor of interest has failed when the error value is greater than the error threshold.
Method for manufacturing panels having a decorative surface wherein said panels at least comprise a substrate and a top layer , wherein said top layer comprises a paper layer having a printed pattern, and wherein said method at least comprises the step of providing said paper layer with at least a portion of said printed pattern by means of a digital inkjet printer , said printed pattern comprising a wood motif having wood nerves extending generally in a nerve direction (D4), and wherein the provision of said printed pattern involves a relative motion of said inkjet printer and said paper layer during the printing operation (S3) in a printing direction (D3), and wherein said method at least comprises the step of providing said paper layer with thermosetting resin by transporting said paper layer through a resin application device in a resin application direction (D1), wherein said step of providing said paper layer with thermosetting resin is performed after printing, characterized in that said method comprises the step of providing said paper layer with an inkjet receiver coating prior to said step of printing by transporting said paper layer relative to a coater in a coating direction (D2), in that said nerve direction (D4) is substantially corresponding to said coating direction (D2), in that said printing direction (D3) is substantially corresponding or substantially opposite to said coating direction (D2), and in that said resin application direction (D1) is substantially corresponding or substantially opposite to said coating direction (D2) and in that said inkjet receiver coating is obtained from a liquid substance which is deposited on the paper using a coater that comprises reverse metering rollers.
A multi-stage rack and pinion gear, which converts a rotational movement of a drive shaft at a gear input into a linear movement of a rack at a gear output, wherein - the rack and pinion gear comprises a plurality of gear stages, each with a driving and a driven gear member, - at least one gear stage comprises wheels as a driving and driven gear member, - the gear ratio of each gear stage, the driving and driven gears of which are designed as wheels, is determined in such a way that the speed of the driven wheel is lower than the speed of the driving wheel, characterized in that the rack and pinion gear is designed as a double stage gear with only a first and second gear stage, wherein, starting from the gear input - the first gear stage is a worm gear stage comprising a screw as the driving gear member and a worm wheel as the driven gear member, wherein the driving gear member of the worm gear stage is arranged at the gear input - and the second gear stage is a spur gear stage which comprises the toothed gear with the maximum number of teeth Z = 1 as the driving gear member and the rack at the transmission output as the driven gear member. - the rack and pinion gear comprises a plurality of gear stages, each with a driving and a driven gear member, - at least one gear stage comprises wheels as a driving and driven gear member, - the gear ratio of each gear stage, the driving and driven gears of which are designed as wheels, is determined in such a way that the speed of the driven wheel is lower than the speed of the driving wheel, - the first gear stage is a worm gear stage comprising a screw as the driving gear member and a worm wheel as the driven gear member, wherein the driving gear member of the worm gear stage is arranged at the gear input - and the second gear stage is a spur gear stage which comprises the toothed gear with the maximum number of teeth Z = 1 as the driving gear member and the rack at the transmission output as the driven gear member.
A heat generating body (1; 11) comprising: a base material (2; 12); a conductive layer (4; 14; 14A, 14B) arranged in a planar manner along the base material (2; 12) and formed of a conductive material; and an electrode connected electrically to the conductive layer (4; 14; 14A, 14B), wherein the base material (2; 12) and the conductive layer (4; 14; 14A, 14B) are flexible such that the heat generating body (1; 11) is installable along any object with various shapes, and the heat generating body (1; 11) further comprises an insulating layer (3; 13; 13A, 13B) arranged on the side of the flexible base material (2; 12) on which the flexible conductive layer (4; 14; 14A, 14B) is provided and formed of an insulating material, and the heat generating body being characterised in that it further comprises a spacer portion (16; 16A, 16B) arranged between the flexible conductive layer (4; 14; 14A, 14B) and the insulating layer (3; 13; 13A, 13B) and capable of forming an enclosed space (17; 17A, 17B) between the flexible conductive layer (4; 14; 14A, 14B) and the insulating layer (3; 13; 13A, 13B). a base material (2; 12); a conductive layer (4; 14; 14A, 14B) arranged in a planar manner along the base material (2; 12) and formed of a conductive material; and an electrode connected electrically to the conductive layer (4; 14; 14A, 14B), wherein the base material (2; 12) and the conductive layer (4; 14; 14A, 14B) are flexible such that the heat generating body (1; 11) is installable along any object with various shapes, and the heat generating body (1; 11) further comprises an insulating layer (3; 13; 13A, 13B) arranged on the side of the flexible base material (2; 12) on which the flexible conductive layer (4; 14; 14A, 14B) is provided and formed of an insulating material, and the heat generating body being characterised in that it further comprises a spacer portion (16; 16A, 16B) arranged between the flexible conductive layer (4; 14; 14A, 14B) and the insulating layer (3; 13; 13A, 13B) and capable of forming an enclosed space (17; 17A, 17B) between the flexible conductive layer (4; 14; 14A, 14B) and the insulating layer (3; 13; 13A, 13B).