mhurhangee/ep-ind-claims huggingface dataset:
Heat shrink component that has first dimensions (102A, 104A) in an expanded state and second dimensions (102B, 104B) in a shrunk state, at least one of the first dimensions being larger than the corresponding second dimension and said heat shrink component (100, 100A, 100B) comprising: a heat shrink sleeve with a heat shrink layer, and at least one heating unit that is arranged on a surface of the heat shrink sleeve and in thermal contact to at least a part of said heat shrink layer, said heating unit being operable to heat up the heat shrink layer to its heat shrink temperature, wherein the heating unit comprises at least one electrically conductive lead (106, 116) for being heated by an electrical current flowing through the lead (106, 116), and at least one heat spreading layer (124, 132) arranged in thermal contact to the at least one electrically conductive lead (106, 116) for distributing the heat generated by the electrically conductive lead (106, 116); wherein the electrically conductive lead (106, 116) is at least partly embedded within an embedding material; wherein the at least one heat spreading layer (124, 132) is composed of metal layers or layers with a high thermal conductivity distributing the heat energy in a direction along the circumference of the heat shrink component, and the heat shrink layer is formed at least partly as a sleeve with a longitudinal axis for covering at least one electrical connection. a heat shrink sleeve with a heat shrink layer, and at least one heating unit that is arranged on a surface of the heat shrink sleeve and in thermal contact to at least a part of said heat shrink layer, said heating unit being operable to heat up the heat shrink layer to its heat shrink temperature, wherein the heating unit comprises at least one electrically conductive lead (106, 116) for being heated by an electrical current flowing through the lead (106, 116), and at least one heat spreading layer (124, 132) arranged in thermal contact to the at least one electrically conductive lead (106, 116) for distributing the heat generated by the electrically conductive lead (106, 116); wherein the electrically conductive lead (106, 116) is at least partly embedded within an embedding material; wherein the at least one heat spreading layer (124, 132) is composed of metal layers or layers with a high thermal conductivity distributing the heat energy in a direction along the circumference of the heat shrink component, and the heat shrink layer is formed at least partly as a sleeve with a longitudinal axis for covering at least one electrical connection.
A quick mount adapter for mounting a mountable device onto a support apparatus, comprising: a main body including an internal threading for attaching the main body to an external screw of the support apparatus; a rotatable cylinder rotatable with respect to the main body; a locking cover attached to the main body and disposed above the rotatable cylinder; a catcher attached to the locking cover and comprising a shaft having a narrow upper part and a wide lower part; a collet clamp moveable in a translational direction with respect to the main body and comprising a plurality of collets that grip the shaft of the catcher; characterized in that the quick mount adapter comprises: lead screws fixed to the collet clamp that transfer rotational movement of the rotatable cylinder to translational movement of the collet clamp such that rotation of the rotatable cylinder causes the collet clamp to move between a first position in which the collets are in an undisturbed state around the narrow upper part of the shaft of the catcher and a second position in which the collets grip the wide lower part of the shaft of the catcher. a main body including an internal threading for attaching the main body to an external screw of the support apparatus; a rotatable cylinder rotatable with respect to the main body; a locking cover attached to the main body and disposed above the rotatable cylinder; a catcher attached to the locking cover and comprising a shaft having a narrow upper part and a wide lower part; a collet clamp moveable in a translational direction with respect to the main body and comprising a plurality of collets that grip the shaft of the catcher; characterized in that the quick mount adapter comprises: lead screws fixed to the collet clamp that transfer rotational movement of the rotatable cylinder to translational movement of the collet clamp such that rotation of the rotatable cylinder causes the collet clamp to move between a first position in which the collets are in an undisturbed state around the narrow upper part of the shaft of the catcher and a second position in which the collets grip the wide lower part of the shaft of the catcher.
Device for separating and concentrating particles present in a fluid, comprising: • a first microchannel, having at least one first aperture (10, 12); • at least one second microchannel, having at least one second aperture, and an end; • the first microchannel surrounding at least part of the second microchannel at said end; • the first microchannel and the second microchannel are connected, at said end, by at least one nanochannel, the nonochannel(s) forming a restriction between the first microchannel and the second microchannel, the geometry of which is fixed during a predetermined time period; • a cap bounding the first microchannel, the second microchannel and the nanochannel at said end, the first microchannel and the second microchannel being made in a first substrate, said first aperture (10, 12) and said second aperture opening into a same face of this substrate. • a first microchannel, having at least one first aperture (10, 12); • at least one second microchannel, having at least one second aperture, and an end; • the first microchannel surrounding at least part of the second microchannel at said end; • the first microchannel and the second microchannel are connected, at said end, by at least one nanochannel, the nonochannel(s) forming a restriction between the first microchannel and the second microchannel, the geometry of which is fixed during a predetermined time period; • a cap bounding the first microchannel, the second microchannel and the nanochannel at said end, the first microchannel and the second microchannel being made in a first substrate, said first aperture (10, 12) and said second aperture opening into a same face of this substrate.
An orthopaedic gait assistive device, comprising: a leaf spring; characterized in that it further comprises a cam system, comprising: a cam profile having a curved outer edge comprising a concave portion; and a cam follower coupled to the leaf spring and positioned within the concave portion when the assistive device is in an equilibrium position. a cam profile having a curved outer edge comprising a concave portion; and a cam follower coupled to the leaf spring and positioned within the concave portion when the assistive device is in an equilibrium position.
An induction heating cooker comprising a full-wave rectifier rectifying the alternative signal, a filter inductance and a filter capacitor at the output of the full-wave rectifier, a parallel resonant circuit having a resonant inductor and a resonant capacitor disposed in parallel, a power switching device in parallel with a reverse-biased freewheeling diode, said power switching device being connected to a collector node whereon a resonant voltage (V ce) is generated and operating such that the resonant inductor and the resonant capacitor involve in energy exchange, said induction heating cooker further comprising a control unit regulating the operation of said power switching device and a drive circuit that drives the same characterized in that; said induction heating cooker comprises a charging circuit and a charge detection circuit, the charging circuit being in parallel with said freewheeling diode, the charging circuit having a charging diode and a charge reference capacitor, the cathode of the charging diode being connected to the cathode of the freewheeling diode, the charge reference capacitor being connected to the anode of the charging diode and to the anode of the freewheeling diode, wherein the charging diode is forward-biased when said freewheeling diode is in conduction, wherein said charging diode charges the charge reference capacitor and wherein the charge detection circuit detects the voltage between the terminals of said charge reference capacitor and generates a voltage output the duration of the square-wave voltage of which in a cycle is indicative of the electrical load associated with said resonant inductor.
A device for use with a fluid sample, the device comprising: a conjugate pad including conjugates for a target analyte; and a test grid including a plurality of zones in a two-dimensional grid, the test grid including: a first test zone in the plurality of zones including at least one of first immobilized antibodies or first immobilized antigens to attach to the target analyte labeled with a first conjugate of the conjugates; a second test zone in the plurality of zones including at least one of second immobilized antibodies or second immobilized antigens to attach to the target analyte labeled with a second conjugate of the conjugates; a control zone in the plurality of zones including at least one of third immobilized antibodies or third immobilized antigens to attach to conjugates not bound to the target analyte; and a blank zone in the plurality of zones that does not include immobilized antibodies or immobilized antigens; wherein a location of the first test zone and the second test zone within the test grid is according to a test grid pattern that is related to identifying information of the device, wherein in the test grid pattern the test zones, control zone and blank zone are randomly distributed such that results appear random to a user. a conjugate pad including conjugates for a target analyte; and a test grid including a plurality of zones in a two-dimensional grid, the test grid including: a first test zone in the plurality of zones including at least one of first immobilized antibodies or first immobilized antigens to attach to the target analyte labeled with a first conjugate of the conjugates; a second test zone in the plurality of zones including at least one of second immobilized antibodies or second immobilized antigens to attach to the target analyte labeled with a second conjugate of the conjugates; a control zone in the plurality of zones including at least one of third immobilized antibodies or third immobilized antigens to attach to conjugates not bound to the target analyte; and a blank zone in the plurality of zones that does not include immobilized antibodies or immobilized antigens; a first test zone in the plurality of zones including at least one of first immobilized antibodies or first immobilized antigens to attach to the target analyte labeled with a first conjugate of the conjugates; a second test zone in the plurality of zones including at least one of second immobilized antibodies or second immobilized antigens to attach to the target analyte labeled with a second conjugate of the conjugates; a control zone in the plurality of zones including at least one of third immobilized antibodies or third immobilized antigens to attach to conjugates not bound to the target analyte; and a blank zone in the plurality of zones that does not include immobilized antibodies or immobilized antigens; wherein a location of the first test zone and the second test zone within the test grid is according to a test grid pattern that is related to identifying information of the device, wherein in the test grid pattern the test zones, control zone and blank zone are randomly distributed such that results appear random to a user.
A length-adjustable catheter (302, 402) comprising: a shaft, the length of which can be varied over a length-adjustment range (ΔL); a guide-wire input port (310, 418); an inflation port (322, 416); a guide-wire lumen that extends from the guide-wire input port (310, 418), through a dual-lumen portion of the shaft (306, 420), to an opening at a shaft tip of the catheter (338, 438); and an inflation lumen (606, 716); characterized in that the inflation lumen extends from the inflation port (322, 416), through a single-lumen portion of the shaft (312, 422) and a dual-lumen portion (306, 420) to an inflatable length-adjustable-catheter component (308, 406); and wherein the single-lumen portion of the shaft (312, 422) comprises a variable-length portion (314, 424) further comprising a smaller-diameter tube (314, 404) joined together at a sealing fitting (320, 408) with a larger-diameter tube (316, 410), the sealing fitting (320, 408) allowing the smaller-diameter tube (314, 404) to slide into the larger-diameter tube (316, 410) while maintaining fluid impermeability of the portion of the inflation lumen contained within the smaller-diameter and larger-diameter tubes. a shaft, the length of which can be varied over a length-adjustment range (ΔL); a guide-wire input port (310, 418); an inflation port (322, 416); a guide-wire lumen that extends from the guide-wire input port (310, 418), through a dual-lumen portion of the shaft (306, 420), to an opening at a shaft tip of the catheter (338, 438); and an inflation lumen (606, 716); characterized in that the inflation lumen extends from the inflation port (322, 416), through a single-lumen portion of the shaft (312, 422) and a dual-lumen portion (306, 420) to an inflatable length-adjustable-catheter component (308, 406); and wherein the single-lumen portion of the shaft (312, 422) comprises a variable-length portion (314, 424) further comprising a smaller-diameter tube (314, 404) joined together at a sealing fitting (320, 408) with a larger-diameter tube (316, 410), the sealing fitting (320, 408) allowing the smaller-diameter tube (314, 404) to slide into the larger-diameter tube (316, 410) while maintaining fluid impermeability of the portion of the inflation lumen contained within the smaller-diameter and larger-diameter tubes.
A composition comprising at least one thiourea complex according to Formula: MQ a X 4-a where: M is a metal center chosen from Ti, Zr, or Hf; a is 1 or 2; each group Q of the at least one thiourea complex is a bidentate thiourea ligand bound to the metal center, the thiourea ligand having Formula (Ia), Formula (Ib), or Formula (Ic): each group R 1, R 2, and R 3 in the at least one thiourea complex is independently chosen from alkyl groups or aryl groups; each group Z 1 and Z 2 in the at least one thiourea complex is a divalent alkylene group; if a = 2, groups R 1 of the two groups Q are optionally linked to each other through at least one covalent bond, or groups R 3 of the two groups Q are optionally linked to each other through at least one covalent bond; and each X is covalently bonded or coordinated to the metal center and is independently chosen from alkyl groups, halides, or amides. M is a metal center chosen from Ti, Zr, or Hf; a is 1 or 2; each group Q of the at least one thiourea complex is a bidentate thiourea ligand bound to the metal center, the thiourea ligand having Formula (Ia), Formula (Ib), or Formula (Ic): each group R 1, R 2, and R 3 in the at least one thiourea complex is independently chosen from alkyl groups or aryl groups; each group Z 1 and Z 2 in the at least one thiourea complex is a divalent alkylene group; if a = 2, groups R 1 of the two groups Q are optionally linked to each other through at least one covalent bond, or groups R 3 of the two groups Q are optionally linked to each other through at least one covalent bond; and each X is covalently bonded or coordinated to the metal center and is independently chosen from alkyl groups, halides, or amides.
A method for indicating a multicast forwarding entry, comprising: receiving, by an access controller, a packet from a first node, wherein the packet comprises a multicast control message and an access loop identifier; obtaining, by the access controller, according to a multicast Internet Protocol, IP, address in the multicast control message, a multicast Media Access Control, MAC, address; obtaining, by the access controller, an identifier of a first port according to the access loop identifier, wherein the first port is an egress port, on a multicast path corresponding to the access loop identifier, of the first node; generating, by the access controller, a first forwarding entry, wherein a destination address of the first forwarding entry is the multicast MAC address and egress port information of the first forwarding entry is the identifier of the first port; sending, by the access controller, the first forwarding entry to the first node. receiving, by an access controller, a packet from a first node, wherein the packet comprises a multicast control message and an access loop identifier; obtaining, by the access controller, according to a multicast Internet Protocol, IP, address in the multicast control message, a multicast Media Access Control, MAC, address; obtaining, by the access controller, an identifier of a first port according to the access loop identifier, wherein the first port is an egress port, on a multicast path corresponding to the access loop identifier, of the first node; generating, by the access controller, a first forwarding entry, wherein a destination address of the first forwarding entry is the multicast MAC address and egress port information of the first forwarding entry is the identifier of the first port; sending, by the access controller, the first forwarding entry to the first node.
Drink powder, containing: a) 40 - 80 % by weight hydrolysed pea protein; and b) 20 - 50 % by weight cocoa powder. a) 40 - 80 % by weight hydrolysed pea protein; and b) 20 - 50 % by weight cocoa powder.
An in-vehicle control device adapted to control a relay 22 configured to cut off an energizing current for an electromagnetic induction load, comprising a capacitor is connected between the relay and the electromagnetic induction load, characterised in that the in-vehicle control device cuts off the relay for a predetermined period of time while the electromagnetic induction load is energized, and diagnoses the relay based on a voltage of a portion in series with the relay obtained when the relay is cut off, the in-vehicle control device calculates the time during which the relay can be cut off and the capacitor is able to supply an energizing current to the electromagnetic induction load, wherein the in-vehicle control device cuts off the relay if a duty ratio of a signal that drives the electromagnetic induction load falls within a threshold range in which it is determined that the relay is capable of being cut off.
A soft magnetic or semi-hard magnetic material, comprising a first phase having crystals with a bcc structure containing Fe and Mn and a second phase having crystals with a bcc structure containing Fe and Mn, wherein in each phase the sum of the Fe and the Mn contained is taken to be 100 atom%, characterised in that: the second phase has a Mn content which is an amount of 2 times or more and 10 5 times or less than the Mn content in the first phase; and the second phase has a Mn content of 2 atom% or more and 100 atom% or less. the second phase has a Mn content which is an amount of 2 times or more and 10 5 times or less than the Mn content in the first phase; and the second phase has a Mn content of 2 atom% or more and 100 atom% or less.
A general purpose input/output port (300; 400) for a processor having a plurality of bits coupled to a plurality of external pins (301; 401), comprising: a first set of registers (206, 208, 210) for providing at least one of first control and data input/output functionality of the GPIO port (300; 400); characterized by a second set of registers (306, 308, 310) for providing at least one of second control and data input/output functionality of the GPIO port (300; 400); a multiplexer (312; 412) and associated select register for controlling the multiplexer (312; 412) to control said GPIO port (300; 400) through either said first or second register set (206,208,210;306,308,310). a first set of registers (206, 208, 210) for providing at least one of first control and data input/output functionality of the GPIO port (300; 400); a second set of registers (306, 308, 310) for providing at least one of second control and data input/output functionality of the GPIO port (300; 400); a multiplexer (312; 412) and associated select register for controlling the multiplexer (312; 412) to control said GPIO port (300; 400) through either said first or second register set (206,208,210;306,308,310).
Rotary transmitter, in particular transformatoric rotary transmitter for supplying an excitation winding of a separately excited synchronous machine, having a primary winding and a secondary winding which is arranged such as to be able to rotate relative to the primary winding and is inductively coupled thereto, wherein the windings (6, 7) extend over the same axial region or at least over an identical axial partial region, wherein a first ferrite core is assigned to the primary winding and a second ferrite core is assigned to the secondary winding, wherein the first and the second ferrite core (2, 3) extend over at least an identical axial partial region and extend at least over an identical radial partial region, wherein the ferrite cores (2, 3) of the respective winding (6, 7) are attached to a respective associated retaining part (1, 5), wherein each ferrite core (2, 3) has substantially a shape corresponding to a full cylinder which has a central bore and in which there is formed a centrally arranged recess which has the shape of a pineapple slice or torus and which has a smaller axial extension than the full cylinder, characterized in that each ferrite core (2, 3) is composed of ferrite plates in such a way that said shape is at least approximately achieved, wherein the ferrite cores (2, 3) of the respective winding (6, 7) are materially attached to the respective associated retaining part (1, 5), wherein the retaining parts (1, 5) are made of aluminium.
A spray head for directing water into a spray pattern, comprising: a casing (103, 303, 403) configured to receive a supply of water; a first plurality of nozzles (110, 307, 407) disposed on the casing in a first array for emitting water in a first spray pattern, each nozzle being configured to emit water in a stream away from the casing; and a second plurality of nozzles (110, 307, 407) arranged on the casing in a second array for emitting the water in a second spray pattern; characterised in that water is emitted from just one of the first plurality of nozzles (110, 307, 407) and the second plurality of nozzles (110, 307, 407) in a first mode of operation; water is emitted from both the first plurality of nozzles (110, 307, 407) and the second plurality of nozzles (110, 307, 407) in a second mode of operation with the second spray pattern being nested within the first spray pattern; and at least one of the first and second spray patterns is hyperboloidal shaped. a casing (103, 303, 403) configured to receive a supply of water; a first plurality of nozzles (110, 307, 407) disposed on the casing in a first array for emitting water in a first spray pattern, each nozzle being configured to emit water in a stream away from the casing; and a second plurality of nozzles (110, 307, 407) arranged on the casing in a second array for emitting the water in a second spray pattern; characterised in that water is emitted from just one of the first plurality of nozzles (110, 307, 407) and the second plurality of nozzles (110, 307, 407) in a first mode of operation; water is emitted from both the first plurality of nozzles (110, 307, 407) and the second plurality of nozzles (110, 307, 407) in a second mode of operation with the second spray pattern being nested within the first spray pattern; and at least one of the first and second spray patterns is hyperboloidal shaped.