mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a movable component of a prosthesis or orthosis, the method comprising: moving the component by means of a motor; characterised in that the method comprises the further steps of: by means of an electrical apparatus: determining when movement of the component is arrested when the component bears against a surface; and providing a plurality of driving electrical pulses to the motor in dependence on the determination and when movement of the component is arrested to thereby drive the motor so as to cause the component to bear against the surface with greater force. moving the component by means of a motor; characterised in that the method comprises the further steps of: by means of an electrical apparatus: determining when movement of the component is arrested when the component bears against a surface; and providing a plurality of driving electrical pulses to the motor in dependence on the determination and when movement of the component is arrested to thereby drive the motor so as to cause the component to bear against the surface with greater force. by means of an electrical apparatus: determining when movement of the component is arrested when the component bears against a surface; and providing a plurality of driving electrical pulses to the motor in dependence on the determination and when movement of the component is arrested to thereby drive the motor so as to cause the component to bear against the surface with greater force. determining when movement of the component is arrested when the component bears against a surface; and providing a plurality of driving electrical pulses to the motor in dependence on the determination and when movement of the component is arrested to thereby drive the motor so as to cause the component to bear against the surface with greater force.
A method for producing a nickel thin film on a Si substrate by a chemical vapor deposition method, comprising the steps of: using a hydrocarbon-type nickel complex represented by Chem. 1 as a raw material compound, which is a nickel complex in which a cyclopentadienyl group or a derivative of the cyclopentadienyl group and a cyclic alkenyl group or a derivative of the alkenyl group, which is cyclobutenyl, cyclopentenyl, cyclohexenyl, cycloheptenyl, cyclooctenyl, cyclononenyl or derivatives thereof as represented by Chem. 2 are coordinated to nickel and an element other than carbon and hydrogen is not contained in the structure; using hydrogen as a reaction gas, and further using a film formation pressure of 1 to 150 torr and a film formation temperature of 80 to 250°C as film formation conditions in the formula, X represents a cyclic alkenyl group or a derivative of the alkenyl group. R 1 to R 5 which are substituent groups of the cyclopentadienyl group represent C n H 2n+1, and n represents an integer of 0 to 6 R 6 to R 65 are C n H 2n+1, n = 0 to 6. n is an integer. using a hydrocarbon-type nickel complex represented by Chem. 1 as a raw material compound, which is a nickel complex in which a cyclopentadienyl group or a derivative of the cyclopentadienyl group and a cyclic alkenyl group or a derivative of the alkenyl group, which is cyclobutenyl, cyclopentenyl, cyclohexenyl, cycloheptenyl, cyclooctenyl, cyclononenyl or derivatives thereof as represented by Chem. 2 are coordinated to nickel and an element other than carbon and hydrogen is not contained in the structure; using hydrogen as a reaction gas, and further using a film formation pressure of 1 to 150 torr and a film formation temperature of 80 to 250°C as film formation conditions in the formula, X represents a cyclic alkenyl group or a derivative of the alkenyl group. R 1 to R 5 which are substituent groups of the cyclopentadienyl group represent C n H 2n+1, and n represents an integer of 0 to 6 R 6 to R 65 are C n H 2n+1, n = 0 to 6. n is an integer.
A cutting instrument (400, 500, 600, 700), comprising: an elongate body (402, 502, 602, 702) having a distal drilling tip (418, 518, 618, 718); and a cutting blade (406, 506, 606, 706) selectively deployable from a cavity (420, 520, 620, 720) formed in the elongate body (402, 502, 602, 702) at a location proximal to the distal drilling tip (418, 518, 618, 718), the cutting blade (406, 506, 606, 706) being deployable to any of a plurality of diameters, and characterised by an adjustment element (412, 512, 648, 748) configured to limit deployment of the cutting blade to a maximum diameter, wherein the adjustment element is configured to vary the maximum diameter to which the cutting blade can be deployed between a preset plurality of maximum diameters. an elongate body (402, 502, 602, 702) having a distal drilling tip (418, 518, 618, 718); and a cutting blade (406, 506, 606, 706) selectively deployable from a cavity (420, 520, 620, 720) formed in the elongate body (402, 502, 602, 702) at a location proximal to the distal drilling tip (418, 518, 618, 718), the cutting blade (406, 506, 606, 706) being deployable to any of a plurality of diameters, and characterised by an adjustment element (412, 512, 648, 748) configured to limit deployment of the cutting blade to a maximum diameter, wherein the adjustment element is configured to vary the maximum diameter to which the cutting blade can be deployed between a preset plurality of maximum diameters.
Motor vehicle carpet floor with a floor covering insulation made of a foamed polyurethane foam with viscoelastic properties, wherein the floor covering insulation covers the underside of the carpet as required from one or more independent or interconnected localized areas, each with the same or different foam composition, wherein the foam of the floor covering insulation has a modulus of elasticity in the range from 20 to 250 kN/m 2, a loss factor in the range from 0.1 to 0.8 and a density in the range from 35 to 120 g/l, characterized in that the foam comprises EPS, EPP and/or PEPP inserts and that the lower surface of the floor lining insulation, which is in contact with the car body when installed, has adhesive properties. wherein the floor covering insulation covers the underside of the carpet as required from one or more independent or interconnected localized areas, each with the same or different foam composition, wherein the foam of the floor covering insulation has a modulus of elasticity in the range from 20 to 250 kN/m 2, a loss factor in the range from 0.1 to 0.8 and a density in the range from 35 to 120 g/l, characterized in that the foam comprises EPS, EPP and/or PEPP inserts and that the lower surface of the floor lining insulation, which is in contact with the car body when installed, has adhesive properties.
A method for wireless communication, comprising: receiving a physical downlink control channel, PDCCH, of a downlink transmission time interval, TTI; identifying, via a downlink control information, DCI, payload of the PDCCH, that the PDCCH includes data communications having a first service configuration for ultra-low latency, ULL, or ultra-reliable low latency communications, URLLC, service; and receiving the data communications within contents of the DCI payload. receiving a physical downlink control channel, PDCCH, of a downlink transmission time interval, TTI; identifying, via a downlink control information, DCI, payload of the PDCCH, that the PDCCH includes data communications having a first service configuration for ultra-low latency, ULL, or ultra-reliable low latency communications, URLLC, service; and receiving the data communications within contents of the DCI payload.
A method for fabricating a magnetic tunneling junction MTJ structure comprising: providing a stack of MTJ layers on a bottom electrode in a substrate, said bottom electrode being surrounded by a dielectric layer; patterning said MTJ stack to form a MTJ structure; thereafter removing said MTJ structure from an etching chamber wherein sidewalls of said MTJ structure are damaged by said patterning; thereafter performing a physical plasma cleaning on said MTJ structure wherein a damaged portion (28, 29) of said sidewalls is removed; and thereafter, without breaking vacuum, depositing an encapsulation layer on said MTJ structure and said bottom electrode, wherein during said physical plasma cleaning, said substrate is placed on a substrate stage and said substrate stage is tilted between 25° and 85° angle in reference to an incoming incident beam of said physical plasma cleaning. providing a stack of MTJ layers on a bottom electrode in a substrate, said bottom electrode being surrounded by a dielectric layer; patterning said MTJ stack to form a MTJ structure; thereafter removing said MTJ structure from an etching chamber wherein sidewalls of said MTJ structure are damaged by said patterning; thereafter performing a physical plasma cleaning on said MTJ structure wherein a damaged portion (28, 29) of said sidewalls is removed; and thereafter, without breaking vacuum, depositing an encapsulation layer on said MTJ structure and said bottom electrode, wherein during said physical plasma cleaning, said substrate is placed on a substrate stage and said substrate stage is tilted between 25° and 85° angle in reference to an incoming incident beam of said physical plasma cleaning.
An aseptic method of fabricating a culture container, comprising: forming a parison; introducing flowable sterile sensor material into the parison; blow molding the parison into a container body before, during or after the introducing step; curing the sensor material so that it attaches to an inner surface of the container body; and sealing the container to form a sterile container that does not require autoclaving. forming a parison; introducing flowable sterile sensor material into the parison; blow molding the parison into a container body before, during or after the introducing step; curing the sensor material so that it attaches to an inner surface of the container body; and sealing the container to form a sterile container that does not require autoclaving.
A double-flexspline harmonic reducer, comprising a strong flexspline, a weak flexspline, a wave generator, and a deformation stopper of the strong flexspline; the strong flexspline and the weak flexspline are coaxially fixed axially and radially, the strong flexspline and the weak flexspline are respectively provided with teeth that can engage with each other; the number of teeth of the strong flexspline and the weak flexspline are different; the wave generator is making the weak flexspline to undergo non-circular elastic deformation and partially engage with the strong flexspline; a contact part of the strong flexspline and the weak flexspline is subjected to the radial pressure of the weak flexspline to generate a non-circular elastic deformation, a flexible tubular wall of the strong flexspline has a toothless surface, characterized in that, a limiting contact surface is processed on the toothless surface, and the deformation stopper of the strong flexspline is fixed with the strong flexspline; the deformation stopper of the strong flexspline is processed with an annular limiting surface, and the limiting contact surface, located at a non-circular elastic deformation region where the strong flexspline is subjected to the radial pressure of the weak flexspline, is contacted with the annular limiting surface, and the deformation of the strong flexspline is limited due to a contact between the strong flexspline after deformation the deformation stopper. the strong flexspline and the weak flexspline are coaxially fixed axially and radially, the strong flexspline and the weak flexspline are respectively provided with teeth that can engage with each other; the number of teeth of the strong flexspline and the weak flexspline are different; the wave generator is making the weak flexspline to undergo non-circular elastic deformation and partially engage with the strong flexspline; a contact part of the strong flexspline and the weak flexspline is subjected to the radial pressure of the weak flexspline to generate a non-circular elastic deformation, a flexible tubular wall of the strong flexspline has a toothless surface, characterized in that, a limiting contact surface is processed on the toothless surface, and the deformation stopper of the strong flexspline is fixed with the strong flexspline; the deformation stopper of the strong flexspline is processed with an annular limiting surface, and the limiting contact surface, located at a non-circular elastic deformation region where the strong flexspline is subjected to the radial pressure of the weak flexspline, is contacted with the annular limiting surface, and the deformation of the strong flexspline is limited due to a contact between the strong flexspline after deformation the deformation stopper.
A method for preparing a pigment for exterior materials comprising: (a) forming a pigment powder by coating an oxide layer including on surfaces of flakes used as a matrix; (b) forming a suspension having a solid content of 5% by weight (wt%) to 20 wt% by mixing the pigment powder with DI water, followed by stirring and dispersing the mixture; (c) dumping CeCl 3 to the suspension, followed by stirring for 5 minutes to 30 minutes; (d) heating the suspension of (c) to 60°C to 90°C, followed by stirring for 10 minutes to 60 minutes; (e) refluxing the suspension of (d) for 5 minutes to 30 minutes after adjusting a pH thereof to 1 to 5; (f) mixing the suspension of (e) with an Al(NO 3) 3 solution to maintain a constant pH and refluxing the suspension for 10 minutes to 60 minutes after injection of the solution; (g) adjusting the pH of the suspension of (f) to 3 to 9 while stirring the suspension; and (h) injecting a silane coupling solution into the suspension having an increased pH in (g) to maintain the pH and refluxing the suspension for 10 minutes to 30 minutes after injection of the silane coupling solution. (a) forming a pigment powder by coating an oxide layer including on surfaces of flakes used as a matrix; (b) forming a suspension having a solid content of 5% by weight (wt%) to 20 wt% by mixing the pigment powder with DI water, followed by stirring and dispersing the mixture; (c) dumping CeCl 3 to the suspension, followed by stirring for 5 minutes to 30 minutes; (d) heating the suspension of (c) to 60°C to 90°C, followed by stirring for 10 minutes to 60 minutes; (e) refluxing the suspension of (d) for 5 minutes to 30 minutes after adjusting a pH thereof to 1 to 5; (f) mixing the suspension of (e) with an Al(NO 3) 3 solution to maintain a constant pH and refluxing the suspension for 10 minutes to 60 minutes after injection of the solution; (g) adjusting the pH of the suspension of (f) to 3 to 9 while stirring the suspension; and (h) injecting a silane coupling solution into the suspension having an increased pH in (g) to maintain the pH and refluxing the suspension for 10 minutes to 30 minutes after injection of the silane coupling solution.
Hinge assembly for fastening a leaf of a door or a window to a frame, which assembly has at least two hinge parts comprising at least one frame hinge part (100A, 100B) which can be fastened to the frame and a leaf hinge part which can be fastened to the leaf, and has at least one clamping assembly, wherein at least one of the hinge parts can be fastened to the frame or leaf via the at least one clamping assembly, and the at least one clamping assembly comprises a clamping plate with a curved extension for engaging behind a first groove (810, 910) of the frame or leaf and a guide plate (320A, 320B, 330) having guide surfaces (321, 322, 323) designed to guide and receive the clamping plate and to be arranged between the clamping plate and the frame or leaf, wherein the guide plate and clamping plate interact during assembly in such a way that the clamping plate is first guided through the guide surfaces of the guide plate and as soon as it engages behind the groove of the frame or leaf, it in turn clamps the guide plate and also the hinge part against the frame or leaf. at least one of the hinge parts can be fastened to the frame or leaf via the at least one clamping assembly, and the at least one clamping assembly comprises a clamping plate with a curved extension for engaging behind a first groove (810, 910) of the frame or leaf and a guide plate (320A, 320B, 330) having guide surfaces (321, 322, 323) designed to guide and receive the clamping plate and to be arranged between the clamping plate and the frame or leaf, wherein the guide plate and clamping plate interact during assembly in such a way that the clamping plate is first guided through the guide surfaces of the guide plate and as soon as it engages behind the groove of the frame or leaf, it in turn clamps the guide plate and also the hinge part against the frame or leaf.
A tag reader system, comprising: a. a mobile part including an antenna for positioning near a group of tags, transmitting a power signal to the tags and receiving a response from the tags; wherein the antenna has an internal impedance that increases or decreases responsive to objects located in its vicinity; b. a reader base for providing the power signal to the mobile part and for storing and analyzing information read from tags; c. a real-time antenna tuning circuit for adjusting the impedance of the antenna; wherein the mobile part, reader base and real time antenna tuning circuit are wired together to transfer the power signal from the reader base to the antenna through the real-time antenna tuning circuit; wherein the real-time antenna tuning circuit monitors the power signal and adjusts the impedance of the antenna responsive to a determination in real-time of power return loss from the antenna; wherein the real-time antenna tuning circuit is installed in the mobile part; and wherein the real-time antenna tuning circuit including a motion detector; wherein the antenna impedance is adjusted only when the motion detector detects that the real-time antenna tuning circuit is in motion. a. a mobile part including an antenna for positioning near a group of tags, transmitting a power signal to the tags and receiving a response from the tags; wherein the antenna has an internal impedance that increases or decreases responsive to objects located in its vicinity; b. a reader base for providing the power signal to the mobile part and for storing and analyzing information read from tags; c. a real-time antenna tuning circuit for adjusting the impedance of the antenna; wherein the mobile part, reader base and real time antenna tuning circuit are wired together to transfer the power signal from the reader base to the antenna through the real-time antenna tuning circuit; wherein the real-time antenna tuning circuit monitors the power signal and adjusts the impedance of the antenna responsive to a determination in real-time of power return loss from the antenna; wherein the real-time antenna tuning circuit is installed in the mobile part; and wherein the real-time antenna tuning circuit including a motion detector; wherein the antenna impedance is adjusted only when the motion detector detects that the real-time antenna tuning circuit is in motion.
A catheter having a proximal end and an opposite closed off distal end, the catheter comprising: a proximal section disposed closest to the proximal end, the proximal section having a substantially uniform outer diameter, the proximal section being formed of a flexible material; a distal section disposed closest to the distal end; the distal section being formed of a substantially rigid material; the distal section formed by a plurality of distal subsections (165, 170) including at least a first distal subsection closest to the proximal end and having a substantially uniform outer diameter (DOD 1) and a second distal subsection closest to the distal end and having a substantially uniform outer diameter (DOD 2), wherein the outer diameter of the first distal subsection is greater than the outer diameter of the second distal subsection; the second distal subsection having a plurality of openings defined radially therein; and the proximal and distal sections having a lumen defined therethrough extending from the proximal end to the distal end, characterised in that the plural openings are only defined in the second distal subsection. a proximal section disposed closest to the proximal end, the proximal section having a substantially uniform outer diameter, the proximal section being formed of a flexible material; a distal section disposed closest to the distal end; the distal section being formed of a substantially rigid material; the distal section formed by a plurality of distal subsections (165, 170) including at least a first distal subsection closest to the proximal end and having a substantially uniform outer diameter (DOD 1) and a second distal subsection closest to the distal end and having a substantially uniform outer diameter (DOD 2), wherein the outer diameter of the first distal subsection is greater than the outer diameter of the second distal subsection; the second distal subsection having a plurality of openings defined radially therein; and the proximal and distal sections having a lumen defined therethrough extending from the proximal end to the distal end, characterised in that the plural openings are only defined in the second distal subsection.
A side guard adapted for mounting to a wheelchair as to separate a seat portion from a main wheel of the wheelchair, the side guard comprising an upper section and a lower section, wherein the upper section is configured, when mounted to the wheelchair, for flexing in response to a force F acting upon it such that it assumes an actuated position bearing against an upper circumferential edge (3, 5) of said main wheel and wherein the upper section returns to its original shape when the force is lifted such that it returns to an unactuated position, characterised in that the upper section is made in a material which has a shore hardness in the range of 65D-70D.
Medical device for injecting contrast media and comprising at least two separate reservoirs the respective contents of which cannot mix with one another in either one of said reservoirs, an injector and a directional control valve arranged in such a way as to place said reservoirs alternately in communication with said injector, each reservoir being separately in fluidic communication with said injector, said medical device being characterized in that it comprises means for bringing about said alternating communication at a frequency of between 0.2 and 5 Hz for a minimum of two consecutive cycles, and in that a diluted mixture of said contents is obtained before it reaches the heart or organ that is to be analyzed.