mhurhangee/patent-ind-claim-en huggingface dataset:
A bedding system for the automation and ventilation of an existing duvet , the bedding system comprising: an inflatable lining configured to be inserted and affixed into a cover of a duvet together with the duvet, the inflatable lining comprising an upper and lower layers affixed together to form a first network of pneumatic chambers defining a plurality of openings extending through the lining allowing air to circulate through the lining; an air blower operatively connected to the inflatable lining for blowing air into the network of pneumatic chambers, so as in use, the inflatable lining is inflated to allow for the duvet and its cover to be straightened back into position after every use of the duvet; a valve configured to receive air from the air blower via a connecting tube for inflating the inflatable lining, and to let the air to escape the inflatable lining when the air blower stops for deflating the inflatable lining when the duvet and its cover are back into position; and wherein the inflatable lining defines a second network of pneumatic chambers configured to circulate and distribute hot or cold air towards a user laid in a bed under the duvet so as to regulate the temperature of the duvet, the lower layers of the inflating lining comprise a plurality of holes in connection with the second network for distributing the temperature controlled air towards the user. wherein the first network of pneumatic chambers defines a grid shaped inflatable lining with squared or circular openings arranged to form column 19) and rows . . an inflatable lining configured to be inserted and affixed into a cover of a duvet together with the duvet, the inflatable lining comprising an upper and lower layers affixed together to form a first network of pneumatic chambers defining a plurality of openings extending through the lining allowing air to circulate through the lining; an air blower operatively connected to the inflatable lining for blowing air into the network of pneumatic chambers, so as in use, the inflatable lining is inflated to allow for the duvet and its cover to be straightened back into position after every use of the duvet; a valve configured to receive air from the air blower via a connecting tube for inflating the inflatable lining, and to let the air to escape the inflatable lining when the air blower stops for deflating the inflatable lining when the duvet and its cover are back into position; and wherein the inflatable lining defines a second network of pneumatic chambers configured to circulate and distribute hot or cold air towards a user laid in a bed under the duvet so as to regulate the temperature of the duvet, the lower layers of the inflating lining comprise a plurality of holes in connection with the second network for distributing the temperature controlled air towards the user. wherein the first network of pneumatic chambers defines a grid shaped inflatable lining with squared or circular openings arranged to form column 19) and rows . .
Use of an additive comprising a compound represented by Formula in nonaqueous electrolyte solutions of a lithium ion battery, wherein in Formula , A represents a divalent hydrocarbon group having 1 to 3 carbon atoms, which may be substituted with a halogen atom, and n represents an integer of 1 to 5.
A rack for integrating into a vehicle , the rack comprising: • a pair of deployment arms for connecting to the vehicle at one end of each deployment arm , • a pair of secondary arms , each secondary arm connected to a respective deployment arm at one end of each secondary arm , • a rail connected to each of the secondary arms at an opposite end of the secondary arm to the connection to the deployment arm , • a pair of sub-rails , each sub-rail connected at the juncture of a respective deployment arm and a respective secondary arm , wherein the rack further comprises: • a pair of outer control arms , each outer control arm connected to the rail at one end of each outer control arm and connected to a respective sub-rail at the opposite end of each outer control arm . • a pair of deployment arms for connecting to the vehicle at one end of each deployment arm , • a pair of secondary arms , each secondary arm connected to a respective deployment arm at one end of each secondary arm , • a rail connected to each of the secondary arms at an opposite end of the secondary arm to the connection to the deployment arm , • a pair of sub-rails , each sub-rail connected at the juncture of a respective deployment arm and a respective secondary arm , wherein the rack further • a pair of outer control arms , each outer control arm connected to the rail at one end of each outer control arm and connected to a respective sub-rail at the opposite end of each outer control arm .
Rupturable film for the sealing of a capsule for extractable substances, consisting of at least one carrier layer of non-woven PLA-based fabric and a gas-barrier layer , mutually coupled, characterised in that said carrier layer is composed of a non-woven fabric of a plastic weldable and compostable material, said barrier layer is comprised of a cellulose-based core layer on the outer surfaces of which there are provided thin protective coatings (2"), obtained by deposition of a varnish based on PVdc, PVOH, silica or aluminium oxides or a metallisation of metal aluminium, said carrier layer and said barrier layer being mutually coupled with adhesive .
A method comprising: receiving information from a mobile device about a specimen sample , wherein the information includes a specimen sample image captured using the mobile device and wherein the captured specimen sample image includes an identifying indicia ; uploading and storing the information in an encrypted format accessible to authorized and verified users; performing an image analysis using a program executing on a server or cloud-based service to determine whether the identifying indicia and information about the specimen sample can be determined from the specimen sample image; wherein at least one physical attribute of the specimen sample is determined based on the information; wherein tracking and status updates are provided in real-time or near real-time for the specimen sample ; and wherein first notifications or reminders regarding the specimen sample are provided to the mobile device and include an indication of whether the specimen sample image is acceptable as determined by the image analysis. receiving information from a mobile device about a specimen sample , wherein the information includes a specimen sample image captured using the mobile device and wherein the captured specimen sample image includes an identifying indicia ; uploading and storing the information in an encrypted format accessible to authorized and verified users; performing an image analysis using a program executing on a server or cloud-based service to determine whether the identifying indicia and information about the specimen sample can be determined from the specimen sample image; wherein at least one physical attribute of the specimen sample is determined based on the information; wherein tracking and status updates are provided in real-time or near real-time for the specimen sample ; and wherein first notifications or reminders regarding the specimen sample are provided to the mobile device and include an indication of whether the specimen sample image is acceptable as determined by the image analysis.
THz measurement device for determining at least one layer thickness (a1, a2, a3, a4) of a test object , wherein the measurement device has: a THz transceiver unit for emitting THz radiation along an optical axis (A) and for receiving reflected THz radiation along the optical axis (A), a control unit for activating the transceiver unit , a grip region for holding and positioning by the user, wherein it has, in a front end region , a contact contour having a plurality of contact points (P, P1, P2, P3, P4) for placement on a curved surface of the test object , for perpendicular positioning of the optical axis (A) on the surface , characterised in that , the contact contour is designed such that when the contact contour is placed on the cylindrical surface of the test object having a defined diameter (D1, D2, D3), exactly four contact points (P1, P2, P3, P4) come into contact, wherein the four contact points (P1, P2, P3, P4) lie in a plane perpendicular to the optical axis (A), wherein the contact contour has two contour lines (7-1, 7-2; 7-3, 7-4) spaced apart in a crosswise direction perpendicular to the optical axis (A) for a surface to be measured, wherein at each contour line (7-1, 7-2; 7-3, 7-4) respectively two contact points (P1, P2; P3, P4) for the defined surface to be measured are formed, and wherein the contour lines are designed in parallel or in mirror symmetry to one another. a THz transceiver unit for emitting THz radiation along an optical axis (A) and for receiving reflected THz radiation along the optical axis (A), a control unit for activating the transceiver unit , a grip region for holding and positioning by the user, wherein it has, in a front end region , a contact contour having a plurality of contact points (P, P1, P2, P3, P4) for placement on a curved surface of the test object , for perpendicular positioning of the optical axis (A) on the surface , characterised in that , the contact contour is designed such that when the contact contour is placed on the cylindrical surface of the test object having a defined diameter (D1, D2, D3), exactly four contact points (P1, P2, P3, P4) come into contact, wherein the four contact points (P1, P2, P3, P4) lie in a plane perpendicular to the optical axis (A), wherein the contact contour has two contour lines (7-1, 7-2; 7-3, 7-4) spaced apart in a crosswise direction perpendicular to the optical axis (A) for a surface to be measured, wherein at each contour line (7-1, 7-2; 7-3, 7-4) respectively two contact points (P1, P2; P3, P4) for the defined surface to be measured are formed, and wherein the contour lines are designed in parallel or in mirror symmetry to one another.
A method of purifying 5-acetamido- N,N '-bis(2,3-dihydroxypropyl)-2,4,6-triiodoisophathalamide, comprising: (i) adding a portion of acid to a stream comprising crude 5-acetamido- N,N'- bis(2,3-dihydroxypropyl)-2,4,6-triiodoisophathalamide in a solvent; (ii) continuously crystallising 5-acetamido- N,N' -bis(2,3-dihydroxypropyl)-2,4,6-triiodoisophathalamide from the crude 5-acetamido- N,N' -bis(2,3-dihydroxypropyl)-2,4,6-triiodoisophathalamide, with removal of at least a fraction of the solvent, wherein the crystallisation is carried out in a continuous reactor, wherein the continuous reactor is a plug flow reactor; wherein at least three further portions of acid are added to the continuous reactor during the crystallisation. (i) adding a portion of acid to a stream comprising crude 5-acetamido- N,N'- bis(2,3-dihydroxypropyl)-2,4,6-triiodoisophathalamide in a solvent; (ii) continuously crystallising 5-acetamido- N,N' -bis(2,3-dihydroxypropyl)-2,4,6-triiodoisophathalamide from the crude 5-acetamido- N,N' -bis(2,3-dihydroxypropyl)-2,4,6-triiodoisophathalamide, with removal of at least a fraction of the solvent, wherein the crystallisation is carried out in a continuous reactor, wherein the continuous reactor is a plug flow reactor;
Method for Manufacturing of High Strength and Heat Resistant Aluminium Alloys Strengthened by Dual Precipitates, in which the alloys having the following chemical composition: Mn: 2.0-5.0 mass.%; Cr: 0.001-2.0 mass.%; Cr + Mn: 2.0-5.0 mass.%; V: 0.001-0.5 mass.%; Cu: 2.0-4.5 mass.%; Be: 0.001-0.9 mass.%; Sc: 0.05-0.5 mass.%; and comprising of at least one element out of Zr: 0.001-0.4 mass.%; Y: 0.001-0.4 mass.%; Ti: 0.001-0.4 mass.%; Hf: 0.001-0.4 mass.% and Nb: 0.001-0.4 mass.%; the balance being Al and inevitable impurities up to 0.5 mass.%. the alloys are manufactured by solidification of the melt by casting methods, in which a cooling rate in the liquid before the beginning of solidification is higher than 100 K s -1 , the alloys are optionally deformed by plastic deformation and mandatory heat treated according to a two-step-ageing treatment wherein the first ageing at the first ageing temperature takes place between 260 °C and 340 °C, and the first ageing time is between 2 hours and 90 hours, where the microstructure after the first ageing treatment consists of quasicrystalline and L 12 precipitates in the Al-rich solid solution; wherein the second ageing temperature is between 350 °C and 490 °C, and the second ageing time is between 15 minutes and 10 hours; and the microstructure after the second ageing consists of stabilised, coarser icosahedral precipitates, and core-shell L 12 precipitates. Mn: 2.0-5.0 mass.%; Cr: 0.001-2.0 mass.%; Cr + Mn: 2.0-5.0 mass.%; V: 0.001-0.5 mass.%; Cu: 2.0-4.5 mass.%; Be: 0.001-0.9 mass.%; Sc: 0.05-0.5 mass.%; and comprising of at least one element out of Zr: 0.001-0.4 mass.%; Y: 0.001-0.4 mass.%; Ti: 0.001-0.4 mass.%; Hf: 0.001-0.4 mass.% and Nb: 0.001-0.4 mass.%; the balance being Al and inevitable impurities up to 0.5 mass.%. the alloys are manufactured by solidification of the melt by casting methods, in which a cooling rate in the liquid before the beginning of solidification is higher than 100 K s -1 , the alloys are optionally deformed by plastic deformation and mandatory heat treated according to a two-step-ageing treatment wherein the first ageing at the first ageing temperature takes place between 260 °C and 340 °C, and the first ageing time is between 2 hours and 90 hours, where the microstructure after the first ageing treatment consists of quasicrystalline and L 12 precipitates in the Al-rich solid solution; wherein the second ageing temperature is between 350 °C and 490 °C, and the second ageing time is between 15 minutes and 10 hours; and the microstructure after the second ageing consists of stabilised, coarser icosahedral precipitates, and core-shell L 12 precipitates.
Training apparatus for simulating a ski movements, comprising: - a frame , - two parallel elongated pedal elements , whereby: - on the rear portion of each of the pedal elements a footrest is present and, - on each of the pedal elements, on the front portion, there is an extending pedal axle located on both an upper side as well as a lower side of the pedal elements, which - when viewed from the under side to the upper side, the axle extends in a direction away from the other pedal element, - when seen from the under side to the upper side, the axle extends towards the rear portion of the pedal element, - the pedal axles are connected pivotally to the frame-both at the under side and at the upper side and whereby, - the pedal elements are connected to each other by means of a coupling element , which, during use of the training apparatus, holds the pedal elements parallel to each other, furthermore - connected to the pedal elements is a transmission mechanism and - connected to the transmission mechanism is a resistor mechanism , which is driven by the lateral displacement of the pedal element. characterised in that the coupling element is formed by an elongated element that near each of the ends, is connected to one of the pedal elements via a ball joint/hinge , and that the resistance mechanism comprises a flywheel and the transmission mechanism is arranged to drive the flywheel, independent of the swinging direction of the pedal element , in one direction of rotation, whereby the transmission mechanism alongside a toothed belt connected to the coupling element comprises two toothed belt wheels and two sprockets , by which the toothed belt, which has been transferred from one of the pedal elements , is transferred to a toothed belt wheel , from which it is then transferred to one of the sprockets and then transferred to the other sprocket , and thereafter transferred to the other belt wheel , each of which is connected by means of a freewheel clutch with the flywheel . - a frame , - two parallel elongated pedal elements , whereby: - on the rear portion of each of the pedal elements a footrest is present and, - on each of the pedal elements, on the front portion, there is an extending pedal axle located on both an upper side as well as a lower side of the pedal elements, which - when viewed from the under side to the upper side, the axle extends in a direction away from the other pedal element, - when seen from the under side to the upper side, the axle extends towards the rear portion of the pedal element, - the pedal axles are connected pivotally to the frame-both at the under side and at the upper side and whereby, - the pedal elements are connected to each other by means of a coupling element , which, during use of the training apparatus, holds the pedal elements parallel to each other, furthermore - connected to the pedal elements is a transmission mechanism and - connected to the transmission mechanism is a resistor mechanism , which is driven by the lateral displacement of the pedal element.
A medical system comprising: a steerable medical instrument comprising a steerable tip at a distal end thereof; at least one actuator ; and control means adapted to command the at least one actuator to cause the medical instrument to be steered according to an insertion control mode as the medical instrument moves in an insertion direction through a body passage and in response to detecting movement of the medical instrument in the retraction direction, adapted to deactivate the at least one actuator to allow the steerable tip of the medical instrument to move in compliance with lateral forces exerted against the medical instrument by a wall of the body passage as the medical instrument moves in a retraction direction through the body passage. a steerable medical instrument comprising a steerable tip at a distal end thereof; at least one actuator ; and control means adapted to command the at least one actuator to cause the medical instrument to be steered according to an insertion control mode as the medical instrument moves in an insertion direction through a body passage and in response to detecting movement of the medical instrument in the retraction direction, adapted to deactivate the at least one actuator to allow the steerable tip of the medical instrument to move in compliance with lateral forces exerted against the medical instrument by a wall of the body passage as the medical instrument moves in a retraction direction through the body passage.
A non-axial compression system for a gas turbine engine for positioning upstream of a combustor of the gas turbine engine , the non-axial compression system comprising: a longitudinal axis aligned with a spool ; a first radial impeller having a first body for rotating about the longitudinal axis; a second radial impeller positioned on the longitudinal axis downstream of the first impeller and upstream of the combustor , the second impeller having a second body for rotating about the longitudinal axis; and a conical screw positioned on the longitudinal axis between the first impeller and the second impeller , the conical screw for rotating about the longitudinal axis, the conical screw having: a first radius adjacent to the first impeller and a second radius adjacent to the second impeller , the second radius smaller than the first radius; a hub ; and at least one conveyor blade extending outwardly from the hub and positioned between the first radius and the second radius, the first body adjacent to the first radius and the at least one conveyor blade being spaced apart from one another along the longitudinal axis; wherein the fluid downstream of the first radial impeller is directed axially by the conical screw towards the second radial impeller . a longitudinal axis aligned with a spool ; a first radial impeller having a first body for rotating about the longitudinal axis; a second radial impeller positioned on the longitudinal axis downstream of the first impeller and upstream of the combustor , the second impeller having a second body for rotating about the longitudinal axis; and a conical screw positioned on the longitudinal axis between the first impeller and the second impeller , the conical screw for rotating about the longitudinal axis, the conical screw having: a first radius adjacent to the first impeller and a second radius adjacent to the second impeller , the second radius smaller than the first radius; a hub ; and at least one conveyor blade extending outwardly from the hub and positioned between the first radius and the second radius, the first body adjacent to the first radius and the at least one conveyor blade being spaced apart from one another along the longitudinal axis; a first radius adjacent to the first impeller and a second radius adjacent to the second impeller , the second radius smaller than the first radius; a hub ; and at least one conveyor blade extending outwardly from the hub and positioned between the first radius and the second radius, the first body adjacent to the first radius and the at least one conveyor blade being spaced apart from one another along the longitudinal axis;
A liquid ejection device comprising: a liquid composition; a first tank for retaining the liquid composition; a head for ejecting the liquid composition; a first heating means for heating the liquid composition retained within the first tank ; a first channel for supplying the liquid composition from the first tank to the head ; a second heating means for heating the liquid composition passing through the first channel at a heating temperature higher than that of the first heating means ; a second channel for returning the liquid composition from the head to the first tank ; and a pump connected to the first channel or the second channel and pumping the liquid composition, the temperature difference between the lowest temperature of a temperature range providing a viscosity range of the liquid composition in which the liquid composition is capable of being ejected and the heating temperature of the second heating means being 30°C or less, wherein the heating temperature of the first heating means is 40°C or higher.