mhurhangee/patent-ind-claim-en huggingface dataset:
An implantable cell encapsulation device, the cell encapsulation device comprising: one or more cell encapsulation layers (12; 32; 42; 112; 402), each of the cell encapsulation layers (12; 32; 42; 112; 402) including: a first membrane (14; 44; 74; 114; 404) that is semipermeable; a second membrane (16; 46; 76; 116; 406) that is semipermeable; and a first plurality of weld lines (18; 48; 78; 118; 408), the second membrane (16; 46; 76; 116; 406) attached to the first membrane (14; 44; 74; 114; 404) by the first plurality of weld lines (18; 48; 78; 118; 408), wherein the first membrane (14; 44; 74; 114; 404), the second membrane (16; 46; 76; 116; 406), and the first plurality of weld lines (18; 48; 78; 118; 408) define at least one cell channel (20; 50; 80; 120; 210; 310; 416; 510; 520) for encapsulating cells characterised in that the cell encapsulation device is configurable between a collapsed configuration and an inflated configuration, wherein the second membrane (16; 46; 76; 116; 406) is substantially parallel to the first membrane (14; 44; 74; 114; 404) when the cell encapsulation device is in the collapsed configuration and the second membrane (16; 46; 76; 116; 406) is substantially non-parallel to the first membrane (14; 44; 74; 114; 404) when the cell encapsulation device is in the inflated configuration. a first membrane (14; 44; 74; 114; 404) that is semipermeable; a second membrane (16; 46; 76; 116; 406) that is semipermeable; and a first plurality of weld lines (18; 48; 78; 118; 408), the second membrane (16; 46; 76; 116; 406) attached to the first membrane (14; 44; 74; 114; 404) by the first plurality of weld lines (18; 48; 78; 118; 408), wherein the first membrane (14; 44; 74; 114; 404), the second membrane (16; 46; 76; 116; 406), and the first plurality of weld lines (18; 48; 78; 118; 408) define at least one cell channel (20; 50; 80; 120; 210; 310; 416; 510; 520) for encapsulating cells characterised in that the cell encapsulation device is configurable between a collapsed configuration and an inflated configuration, wherein the second membrane (16; 46; 76; 116; 406) is substantially parallel to the first membrane (14; 44; 74; 114; 404) when the cell encapsulation device is in the collapsed configuration and the second membrane (16; 46; 76; 116; 406) is substantially non-parallel to the first membrane (14; 44; 74; 114; 404) when the cell encapsulation device is in the inflated configuration.
A secondary battery pack comprising: - at least one battery module casing 102 in which is disposed a plurality of battery cells 103 which are electrically connected to one another, - a silicone rubber syntactic foam comprising a silicone rubber binder and hollow glass beads, and said silicone rubber syntactic foam fills partially or fully the open space of said battery module casing 102 and/or covering partially or totally said battery cells 103 and/or covering partially or totally said module casing 102 , and - optionally a lid covering the battery module casing 102. - at least one battery module casing 102 in which is disposed a plurality of battery cells 103 which are electrically connected to one another, - a silicone rubber syntactic foam comprising a silicone rubber binder and hollow glass beads, and said silicone rubber syntactic foam fills partially or fully the open space of said battery module casing 102 and/or covering partially or totally said battery cells 103 and/or covering partially or totally said module casing 102 , and - optionally a lid covering the battery module casing 102.
Process for additive construction of shaped bodies by site-specific application of a structure-forming material SFM , characterized in that simultaneously or with a temporal offset at least one support material SM is applied in regions which remain free from SFM , wherein the application of the SM is carried out via an apparatus comprising at least one fixed application unit for the SM which by site-specific application of the SM on a base plate positionable in the x, y and z direction successively constructs the support structure for the shaped body , wherein the SM is a composition comprising (A) at least one polyether, (B) at least one particulate rheological additive and (C) optionally further additives and after completion of construction of the shaped body the SM is removed from the shaped body . (A) at least one polyether, (B) at least one particulate rheological additive and (C) optionally further additives
A lock assembly , comprising: a housing ; a cable reel disposed in the housing and rotatable therein about a reel axis (A R ); a cable wound on the cable reel and having a first end connected to the cable reel and a second end including a locking feature; and a lock core including a receptacle extending along a longitudinal core axis (A C ) and configured to receive the second end of the cable , characterized in that the core axis (A C ) is substantially parallel to the reel axis (A R ) and wherein a wheel pin extends from the lock core when the second end is inserted into the receptacle . a housing ; a cable reel disposed in the housing and rotatable therein about a reel axis (A R ); a cable wound on the cable reel and having a first end connected to the cable reel and a second end including a locking feature; and a lock core including a receptacle extending along a longitudinal core axis (A C ) and configured to receive the second end of the cable ,
A sample-handling-module cooperating with a load receiver of a weighing device for calibrating a multi-channel liquid handling device, said sample-handling-module comprising: a. a holding device comprising holders arranged sequentially and spaced apart equally from each other and configured to receive receptacles ; characterized by b. a supporting device comprising an array of tines providing lateral support to the holders when said holders dismount from the load receiver ; and c. an actuating device operatively connected to the holders through the array of tines , wherein the actuating device is operable to mount the holders on to the load receiver , one at a time, by disengaging the corresponding tines supporting said holder . a. a holding device comprising holders arranged sequentially and spaced apart equally from each other and configured to receive receptacles ; characterized by b. a supporting device comprising an array of tines providing lateral support to the holders when said holders dismount from the load receiver ; and c. an actuating device operatively connected to the holders through the array of tines , wherein the actuating device is operable to mount the holders on to the load receiver , one at a time, by disengaging the corresponding tines supporting said holder .
A non-transient machine readable medium containing program instructions for causing a a neuromodulator configured to be connected to electrodes and deliver neuromodulation energy to one or more neural targets through said electrodes to: determine target energy allocations for a plurality of said electrodes based on at least one target pole to provide a target sub-perception modulation field; calibrate a plurality of electrode groups in said plurality of electrodes where each of the plurality of electrode groups is in an electrode configuration and includes an electrode set of at least one electrode from the plurality of electrodes, wherein the calibrate the electrode groups includes, for each of the plurality of electrode groups, delivering modulation energy to a neural target and receiving a feedback metric; and normalize the target sub-perception modulation field, including determine a space domain scaling factor using the feedback metric to account for displacement between electrodes or between electrode and tissue, and apply the space domain scaling factor to the target energy allocations. determine target energy allocations for a plurality of said electrodes based on at least one target pole to provide a target sub-perception modulation field; calibrate a plurality of electrode groups in said plurality of electrodes where each of the plurality of electrode groups is in an electrode configuration and includes an electrode set of at least one electrode from the plurality of electrodes, wherein the calibrate the electrode groups includes, for each of the plurality of electrode groups, delivering modulation energy to a neural target and receiving a feedback metric; and normalize the target sub-perception modulation field, including determine a space domain scaling factor using the feedback metric to account for displacement between electrodes or between electrode and tissue, and apply the space domain scaling factor to the target energy allocations.
A hot dipped high manganese steel, comprising a steel substrate and a coating on a surface of the steel substrate, wherein the steel substrate has a core structure of austenite; the steel substrate has a skin layer which is a fine ferrite grain layer; the fine ferrite grain layer comprises an Al oxide, wherein the steel substrate consists of 10 to 30% Mn, 1 to 2% Al, 0.4 to 0.8% C, Si<0.5%, P≤0.02% S≤0.01% and N<0.021% by mass, and a balance Fe and unavoidable impurities by mass, wherein the fine ferrite grain layer has a grain size of ≤5μm and a thickness of 0.2-5μm, and wherein the hot dipped high manganese steel has a yield strength of 450-650MPa, a tensile strength of 950-1100MPa, and an elongation at break of at least 50%. wherein the steel substrate has a core structure of austenite; the steel substrate has a skin layer which is a fine ferrite grain layer; the fine ferrite grain layer comprises an Al oxide, wherein the steel substrate consists of 10 to 30% Mn, 1 to 2% Al, 0.4 to 0.8% C, Si<0.5%, P≤0.02% S≤0.01% and N<0.021% by mass, and a balance Fe and unavoidable impurities by mass, wherein the fine ferrite grain layer has a grain size of ≤5μm and a thickness of 0.2-5μm, and wherein the hot dipped high manganese steel has a yield strength of 450-650MPa, a tensile strength of 950-1100MPa, and an elongation at break of at least 50%.
A scattering film to be used in an organic EL light-emitting device and disposed on the side of the light-emitting surface of the organic EL light-emitting device, the scattering film including a scattering layer that contains: a binder resin; microparticles having an average particle diameter of 1 μm or smaller and having a different refractive index from the binder resin, the difference in refractive index being 0.03 or more; and resin particles having a larger average particle diameter than the microparticles, the average particle diameter of the resin particles being 1 μm or larger, wherein the scattering layer contains 5 to 90 parts by weight of the microparticles and 100 to 300 parts by weight of the resin particles per 100 parts by weight of the binder resin. a binder resin; microparticles having an average particle diameter of 1 μm or smaller and having a different refractive index from the binder resin, the difference in refractive index being 0.03 or more; and resin particles having a larger average particle diameter than the microparticles, the average particle diameter of the resin particles being 1 μm or larger, wherein the scattering layer contains 5 to 90 parts by weight of the microparticles and 100 to 300 parts by weight of the resin particles per 100 parts by weight of the binder resin.
An operator assembly for moving a window vent relative to a window frame , the operator assembly comprising: a base adapted to be fixed to the window frame, the base at least partially defining a channel ; a cover attached to the base; a first arm ; a second arm is pivotally coupled to both the first arm and the base and rotatable relative to the base between a closed position and an open position; a drive member received in the channel for linear movement therein relative to the base among a first position in which the drive member is configured to engage a locking feature of the window vent with the arm in the closed position, a second position in which the drive member is configured to be spaced from and disengaged from the locking feature without rotating the arm out of the closed position, and a third position in which the drive member is configured to be further spaced from the locking feature, and wherein movement of the drive member from the second position to the third position is configured to correspondingly cause movement of the second arm from the closed position to the open position; wherein the drive member comprises a first slot having a horizontally extending portion and a vertically extending portion that are angled relative to each other; wherein the first arm includes a peg that is slidably received in the first slot; wherein the cover comprises an inclined slot that is angled relative to both the horizontally extending portion and the vertically extending portion of the first slot; and wherein the peg is slidably received within the inclined slot. a base adapted to be fixed to the window frame, the base at least partially defining a channel ; a cover attached to the base; a first arm ; a second arm is pivotally coupled to both the first arm and the base and rotatable relative to the base between a closed position and an open position; a drive member received in the channel for linear movement therein relative to the base among a first position in which the drive member is configured to engage a locking feature of the window vent with the arm in the closed position, a second position in which the drive member is configured to be spaced from and disengaged from the locking feature without rotating the arm out of the closed position, and a third position in which the drive member is configured to be further spaced from the locking feature, and wherein movement of the drive member from the second position to the third position is configured to correspondingly cause movement of the second arm from the closed position to the open position; wherein the drive member comprises a first slot having a horizontally extending portion and a vertically extending portion that are angled relative to each other; wherein the first arm includes a peg that is slidably received in the first slot; wherein the cover comprises an inclined slot that is angled relative to both the horizontally extending portion and the vertically extending portion of the first slot; and wherein the peg is slidably received within the inclined slot.
A control device to be applied to an internal combustion engine including a fuel reformation cylinder capable of serving as a fuel reformation device and one or more output cylinders to which reformed fuel generated in the fuel reformation cylinder is supplied, the one or more output cylinders each configured to yield an engine power by combusting the reformed fuel, the fuel reformation cylinder and the one or more output cylinders being connected in a mutually-power-transmittable manner, wherein the control device comprises an output adjustment unit configured to evaluate an output from the fuel reformation cylinder , and execute an output adjusting operation to adjust an output from the one or more output cylinders so that a sum of the output from the fuel reformation cylinder and the output from the one or more output cylinders matches or substantially matches with a required engine power, wherein the output from the fuel reformation cylinder is evaluated based on a cylinder internal pressure of the fuel reformation cylinder and a rotational speed of the fuel reformation cylinder , or evaluated based on a rotational speed of the fuel reformation cylinder at a time of executing reforming reaction in the fuel reformation cylinder , and wherein each of the cylinders has an injector configured to supply fuel into the cylinder , and the output adjustment unit, during a transient operation in which the required engine power is increased, increases a fuel supply amount to the or each output cylinder from its injector to increase the output from the or every output cylinder , so that a sum of output from the or every output cylinder and the output from the fuel reformation cylinder matches or substantially matches with the required engine power, and then gradually increases the fuel supply amount from the injector to the fuel reformation cylinder while gradually reducing the fuel supply amount to the or each output cylinder from its injector , so as to maintain a state in which the sum of the output from the or every output cylinder and the output from the fuel reformation cylinder matches or substantially matches with the required engine power.
A system for determining displacement of a distal portion of an interventional device inside a lumen , comprising: a processor configured to: receive one or more images from an ultrasound transducer of the interventional device , wherein the images are representative of the lumen ; and input the one or more images into a machine learning algorithm , characterized in that the machine learning algorithm is trained to determine a relationship between the one or more images of the lumen and the displacement of the interventional device in an elevational direction substantially parallel to the direction of movement of the distal portion of the interventional device , and the machine learning algorithm is configured to output a one dimensional estimated displacement corresponding to the movement of the distal portion of the interventional device in the elevational direction for the one or more images . receive one or more images from an ultrasound transducer of the interventional device , wherein the images are representative of the lumen ; and input the one or more images into a machine learning algorithm , characterized in that the machine learning algorithm is trained to determine a relationship between the one or more images of the lumen and the displacement of the interventional device in an elevational direction substantially parallel to the direction of movement of the distal portion of the interventional device , and the machine learning algorithm is configured to output a one dimensional estimated displacement corresponding to the movement of the distal portion of the interventional device in the elevational direction for the one or more images . the machine learning algorithm is trained to determine a relationship between the one or more images of the lumen and the displacement of the interventional device in an elevational direction substantially parallel to the direction of movement of the distal portion of the interventional device , and the machine learning algorithm is configured to output a one dimensional estimated displacement corresponding to the movement of the distal portion of the interventional device in the elevational direction for the one or more images .
A transport pallet for transporting an object (W) to be transported on a plurality of transport rollers aligned and arranged in parallel at a predetermined arrangement pitch (A), said transport pallet comprising: a saddle member on which the object (W) to be transported can be mounted; and a skid member configured to travel integrally with the saddle member on the plurality of transport rollers located in use below the saddle member , wherein the skid member is composed of two divided skids juxtaposed one behind the other in a transport direction, each divided skid includes a runner extending continuously in a straight line in forward and backward directions of the transport and having a lower surface adapted to come into contact with the transport rollers , the saddle member has, at four positions, front and rear on both the left and right sides on a lower surface, load transmission parts configured to transmit a load acting on the saddle member to the skid member , the front load transmission parts being disposed on the front divided skid , the rear load transmission parts being disposed on the rear divided skid , each of the divided skids has a load support member configured to support the load transmitted from the load transmission part , characterized in that a recessed portion formed at a position on the lower surface of the runner corresponding to the load support member . a saddle member on which the object (W) to be transported can be mounted; and a skid member configured to travel integrally with the saddle member on the plurality of transport rollers located in use below the saddle member , wherein the skid member is composed of two divided skids juxtaposed one behind the other in a transport direction, each divided skid includes a runner extending continuously in a straight line in forward and backward directions of the transport and having a lower surface adapted to come into contact with the transport rollers , the saddle member has, at four positions, front and rear on both the left and right sides on a lower surface, load transmission parts configured to transmit a load acting on the saddle member to the skid member , the front load transmission parts being disposed on the front divided skid , the rear load transmission parts being disposed on the rear divided skid , each of the divided skids has a load support member configured to support the load transmitted from the load transmission part ,
A test apparatus for measuring the frictional properties of a fluid comprising; a first specimen holder which is adapted to hold a first specimen in the fluid being tested, said fluid being contained in a tank, such that a first specimen surface of the first specimen is in contact with a second specimen surface of a second specimen , in a second specimen holder , the first specimen holder is connected to a shaft which is induced to move in a first direction being the direction of the length of the shaft means for applying a measurable load between the two specimens , said test apparatus also comprising oscillatory driving means for oscillating the first specimen holder , along the first direction, displacement measuring means to determine the amplitude of oscillation of the specimen and force measuring means to measure the frictional force between the two specimens ; characterised in that the apparatus includes an off-centre weight located on the shaft , for inducing a motion between the first and second specimen holders in a second direction resulting in a compound movement of the upper specimen holder relative to the lower specimen holder in both the axial and non-axial directions.