mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device, comprising: a first foldable main body ; a second foldable main body , disposed on a side of the first foldable main body ; a rotating shaft , disposed between the first foldable main body and the second foldable main body , wherein the first foldable main body and the second foldable main body are rotationally connected to each other by the rotating shaft ; and a detection assembly , configured to detect a relative angle between the first foldable main body and the second foldable main body , wherein the detection assembly comprises a first detection part and a second detection part , the first detection part is fixed relative to one of the first foldable main body or the second foldable main body , and the second detection part is fixed relative to the other one of the first foldable main body or the second foldable main body ; characterized in that the second detection part comprises a plurality of capacitors , wherein the capacitors are disposed at intervals in a rotating direction of the first foldable main body and the second foldable main body , capacitances of the capacitors are different from one another, the first detection part is switchably connected to the capacitors , and in a case that the first detection part is connected to one of the capacitors , the first detection part is conducted with the second detection part to form a detection loop, wherein distances between all the adjacent capacitors are the same, and capacitances between all the adjacent capacitors increase or decrease at a preset gradient. a first foldable main body ; a second foldable main body , disposed on a side of the first foldable main body ; a rotating shaft , disposed between the first foldable main body and the second foldable main body , wherein the first foldable main body and the second foldable main body are rotationally connected to each other by the rotating shaft ; and a detection assembly , configured to detect a relative angle between the first foldable main body and the second foldable main body , wherein the detection assembly comprises a first detection part and a second detection part , the first detection part is fixed relative to one of the first foldable main body or the second foldable main body , and the second detection part is fixed relative to the other one of the first foldable main body or the second foldable main body ; characterized in that the second detection part comprises a plurality of capacitors , wherein the capacitors are disposed at intervals in a rotating direction of the first foldable main body and the second foldable main body , capacitances of the capacitors are different from one another, the first detection part is switchably connected to the capacitors , and in a case that the first detection part is connected to one of the capacitors , the first detection part is conducted with the second detection part to form a detection loop, wherein distances between all the adjacent capacitors are the same, and capacitances between all the adjacent capacitors increase or decrease at a preset gradient.
A strain gauge comprising: a substrate formed of resin and having flexibility; and a resistor , characterized by further comprising: a functional layer formed from a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed as a film containing Cr, CrN, and Cr 2 N into which an element contained in the functional layer is diffused, on one surface of the functional layer , wherein a first substance having a function of preventing crystal grains as a main component of the resistor from cohering, is added to the resistor , and wherein the functional layer includes a material that promotes crystal growth of the resistor , the crystal growth causing the film formed with the main component of the resistor to be deposited. a substrate formed of resin and having flexibility; and a resistor , characterized by further comprising: a functional layer formed from a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed as a film containing Cr, CrN, and Cr 2 N into which an element contained in the functional layer is diffused, on one surface of the functional layer , wherein a first substance having a function of preventing crystal grains as a main component of the resistor from cohering, is added to the resistor , and wherein the functional layer includes a material that promotes crystal growth of the resistor , the crystal growth causing the film formed with the main component of the resistor to be deposited. a functional layer formed from a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed as a film containing Cr, CrN, and Cr 2 N into which an element contained in the functional layer is diffused, on one surface of the functional layer , wherein a first substance having a function of preventing crystal grains as a main component of the resistor from cohering, is added to the resistor , and wherein the functional layer includes a material that promotes crystal growth of the resistor , the crystal growth causing the film formed with the main component of the resistor to be deposited.
A system for producing registered images of a body cavity, comprising: a first imaging device having an imager positioned at a distal end thereof, said first imaging device being configured to produce a first image of a body cavity; and an imaging system, comprising: a second imaging device having an imager positioned at a distal end thereof and configured to be positioned proximate to said imager of said first imaging device within said body cavity and configured to produce a second image; an elongated member extending along a longitudinal axis and being configured to contain said second imaging device such that said second imaging device can rotate within said elongate member; and a balloon at a distal end of said elongated member and comprising a first marker configured to produce registration information in the first image and the second image, wherein said first marker extends parallel to the longitudinal axis; wherein the first imaging device is a camera and the second imaging device is an optical coherence tomography (OCT) imaging device; wherein the OCT imaging device is translatable and rotatable with respect to the first imaging device. a first imaging device having an imager positioned at a distal end thereof, said first imaging device being configured to produce a first image of a body cavity; and an imaging system, comprising: a second imaging device having an imager positioned at a distal end thereof and configured to be positioned proximate to said imager of said first imaging device within said body cavity and configured to produce a second image; an elongated member extending along a longitudinal axis and being configured to contain said second imaging device such that said second imaging device can rotate within said elongate member; and a balloon at a distal end of said elongated member and comprising a first marker configured to produce registration information in the first image and the second image, wherein said first marker extends parallel to the longitudinal axis; a second imaging device having an imager positioned at a distal end thereof and configured to be positioned proximate to said imager of said first imaging device within said body cavity and configured to produce a second image; an elongated member extending along a longitudinal axis and being configured to contain said second imaging device such that said second imaging device can rotate within said elongate member; and a balloon at a distal end of said elongated member and comprising a first marker configured to produce registration information in the first image and the second image, wherein said first marker extends parallel to the longitudinal axis; wherein the first imaging device is a camera and the second imaging device is an optical coherence tomography (OCT) imaging device; wherein the OCT imaging device is translatable and rotatable with respect to the first imaging device.
A printhead module for a modular pagewide inkjet printhead , the printhead module comprising: a substrate having a plurality of parallel ink supply channels extending longitudinally along a length thereof; a plurality of parallel printhead segments extending longitudinally along a length of the substrate , each printhead segment comprising a plurality of print chips butted end on end in a row, all print chips in one row receiving ink only from a single respective one of the ink supply channels , and each print chip comprising a plurality of nozzle rows for redundant monochrome printing whereby a plurality of nozzles are available for printing each pixel position, wherein: a plurality of fingers extend longitudinally from opposite ends of each printhead module ; and each finger comprises a portion of a respective one of the printhead segments such that a total number of fingers is twice a number of printhead segments. a substrate having a plurality of parallel ink supply channels extending longitudinally along a length thereof; a plurality of parallel printhead segments extending longitudinally along a length of the substrate , each printhead segment comprising a plurality of print chips butted end on end in a row, all print chips in one row receiving ink only from a single respective one of the ink supply channels , and each print chip comprising a plurality of nozzle rows for redundant monochrome printing whereby a plurality of nozzles are available for printing each pixel position, a plurality of fingers extend longitudinally from opposite ends of each printhead module ; and each finger comprises a portion of a respective one of the printhead segments such that a total number of fingers is twice a number of printhead segments.
An information processing apparatus for implementing functions of a user terminal , the information processing apparatus comprising: a display control unit that controls display of a virtual object on a display screen of the user terminal, the virtual object being based on an object existing in a real space; and a movement information generation unit that generates movement information, on the basis of an operation by a user viewing the display screen, for controlling a movement of a moving body with respect to the object in the real space, the moving body being communicably connected to the user terminal, wherein the display includes a route of the moving body, characterized in that at least one adjustment portion for adjusting the route is displayed in at least a part of the route, and the operation is an operation for shifting a position of the adjustment portion displayed on the display screen. a display control unit that controls display of a virtual object on a display screen of the user terminal, the virtual object being based on an object existing in a real space; and a movement information generation unit that generates movement information, on the basis of an operation by a user viewing the display screen, for controlling a movement of a moving body with respect to the object in the real space, the moving body being communicably connected to the user terminal, wherein the display includes a route of the moving body, characterized in that at least one adjustment portion for adjusting the route is displayed in at least a part of the route, and the operation is an operation for shifting a position of the adjustment portion displayed on the display screen.
A fractional lobe processor comprising a. a barrel with heating and cooling means having two parallel intersecting bores of equal diameter, wherein the centre distance between the two bores is lesser than the diameter of the bore; b. a shaft coupled with a plurality of screw elements to form a screw within each bore, wherein the screws are intermeshing, characterized in that the screws form at least four zones within the barrel, the zones comprising i. an intake zone comprising at least one deep flighted shovel element on each intermeshing screw for receiving a input blend comprising an active substance and an excipient, wherein the deep flighted shovel element is an element defining an acute angle under-cut, wherein the acute angle is measured in a direction of flow of the material; ii. a granulation zone consisting of only fractional lobe elements, and having a provision for introducing moisture or a binder solution, for granulating the active substance and the excipient to form wet granules; iii. drying zone for drying the wet granules; iv. a discharge zone for discharging the granules; wherein the granulation zone is located before the discharge zone and after the intake zone; wherein the drying zone has one or more fractional lobe elements on each shaft; and wherein the granulation zone has a plurality of fractional lobe elements on each shaft. a. a barrel with heating and cooling means having two parallel intersecting bores of equal diameter, wherein the centre distance between the two bores is lesser than the diameter of the bore; b. a shaft coupled with a plurality of screw elements to form a screw within each bore, wherein the screws are intermeshing, i. an intake zone comprising at least one deep flighted shovel element on each intermeshing screw for receiving a input blend comprising an active substance and an excipient, wherein the deep flighted shovel element is an element defining an acute angle under-cut, wherein the acute angle is measured in a direction of flow of the material; ii. a granulation zone consisting of only fractional lobe elements, and having a provision for introducing moisture or a binder solution, for granulating the active substance and the excipient to form wet granules; iii. drying zone for drying the wet granules; iv. a discharge zone for discharging the granules;
A system for electrical neurostimulation of the spinal cord of a subject suffering from a neuromotor impairment, the system being configured for facilitating locomotor functions in said subject, the system comprising: a) an Implantable Pulse Generator (IPG) able to simultaneously deliver independent current or voltage pulses to multiple electrodes; b) one or more multi-electrode arrays suitable to cover at least a portion of the spinal cord to selectively stimulate the spinal circuits and dorsal roots by means of said pulses, wherein said IPG is operatively connected with said one or more multi-electrode arrays to provide a multipolar stimulation. a) an Implantable Pulse Generator (IPG) able to simultaneously deliver independent current or voltage pulses to multiple electrodes; b) one or more multi-electrode arrays suitable to cover at least a portion of the spinal cord to selectively stimulate the spinal circuits and dorsal roots by means of said pulses, wherein said IPG is operatively connected with said one or more multi-electrode arrays to provide a multipolar stimulation.
A BPM electric motor for washing machines, comprising: - a stator , consisting of a stack of magnetic laminations defining radial slots , equally spaced circumferentially through tooth lips, in which the windings which generate a magnetic field are housed, and - an interior permanent magnet rotor of the "spoke" type, consisting of a stack of magnetic laminations defining radial slots open radially outside, equally spaced circumferentially, in which the permanent magnets are inserted, - said rotor being disposed inside said stator , said stator and said rotor being separated by an air-gap (g), characterized in that the dimensional characteristics of the rotor slots , of the tooth lips of the stator and the air gap (g) are calculated on the basis of a dimensionless parameter K cm resulting from a modified Carter's coefficient K cm according to the following formula: K cm = K cms * K cmr wherein: K cms is a modified Carter's coefficient for the stator, and K cmr is a modified Carter's coefficient for the rotor, and wherein, to calculate said coefficients, the following formulas are applied: wherein: D er is the outer diameter of the rotor, D is is the inner diameter of the stator, Q is the number of stator slots, W bt is the width of the tooth lip, w os is the opening of the stator slot, and: wherein: p is the number of poles, D sr is the diameter of the shaping of the rotor pole, α is the half-angle of the shaping of the rotor pole, β is the half-angle of the rotor pole, w or is the opening of the rotor slot. - a stator , consisting of a stack of magnetic laminations defining radial slots , equally spaced circumferentially through tooth lips, in which the windings which generate a magnetic field are housed, and - an interior permanent magnet rotor of the "spoke" type, consisting of a stack of magnetic laminations defining radial slots open radially outside, equally spaced circumferentially, in which the permanent magnets are inserted, - said rotor being disposed inside said stator , said stator and said rotor being separated by an air-gap (g), K cms is a modified Carter's coefficient for the stator, and K cmr is a modified Carter's coefficient for the rotor, D er is the outer diameter of the rotor, D is is the inner diameter of the stator, Q is the number of stator slots, W bt is the width of the tooth lip, w os is the opening of the stator slot, p is the number of poles, D sr is the diameter of the shaping of the rotor pole, α is the half-angle of the shaping of the rotor pole, β is the half-angle of the rotor pole, w or is the opening of the rotor slot.
Method for adapting the control functions in an elevator system, which comprises at least one elevator (A, B, C, D) and at least one freely locatable call terminal comprising pushbuttons for registering destination calls given by passengers, and also a display for displaying guidance information and other information, and comprising also a control system responsive to the aforementioned call terminal , characterized in that the method comprises the phases: the call terminal is disposed in the desired location in the building; a value of the at least one control parameter being a walking time parameter to be used in the allocation of an elevator serving a call is set, which parameter determines the probable transfer time of a passenger from the call terminal to the elevator of the elevator system, and which value depends on the location of the call terminal; and the aforementioned control parameter is used for the control of the elevator system. the call terminal is disposed in the desired location in the building; a value of the at least one control parameter being a walking time parameter to be used in the allocation of an elevator serving a call is set, which parameter determines the probable transfer time of a passenger from the call terminal to the elevator of the elevator system, and which value depends on the location of the call terminal; and the aforementioned control parameter is used for the control of the elevator system.
A solid fuel heater comprising a device for detection of the optimum residual layer of fuel , the device comprising a detection arm pivotally located in a fuel chamber of the heater , wherein the end portion (7.1) of the detection arm defines the level of the residual layer of fuel , and wherein the detection arm is connected to a detection deflection element , the detection deflection element comprises an outer arm which is firmly connected to the detection arm , wherein the outer arm is led out of the fuel chamber , wherein on the outer arm a weight is attached, wherein the detection deflection element is associated with a pressing element , characterized in that the pressing element consists of a cam associated with the outer arm , wherein the cam is connected to a loading door by means of a rod .
Climbing aid for a touring ski, comprising a planar base element which is connected on the inner side to fastening means in order to be detachably fastened to a running surface of the ski and which is connected on the outer side to backwards-sliding prevention elements acting counter to a direction of travel (W), a flexible plastic support material being provided as a base element , and the backwards-sliding prevention elements being integrally formed with the plastic support material , characterised in that , in lateral regions, the base element has backwards-sliding prevention elements comprising push-off wings positioned obliquely to the direction of travel (W) and, in the central region, has backwards-sliding prevention elements (6") comprising push-off wings arranged substantially perpendicularly to the direction of travel (W), and/or in that , in lateral edge regions, the base element has backwards-sliding prevention elements of a first type, and, in the central region, has backwards-sliding prevention elements of a second type, the push-off wings of the backwards-sliding prevention elements of the first type being of lesser length and/or of lesser height than the push-off wings of the backwards-sliding prevention elements of the second type.
A honeycomb segment having a part of a whole shape constituting a honeycomb structure having a plurality of cells serving as flow channels for exhaust gas being formed between its two end faces, being capable of forming a honeycomb structure by integrally bonded by means of a bonding material ; the segment having inner partition walls which define the cells and contain a number of first pores therein, and an outer circumferential wall containing a number of second pores therein and being provided so as to surround the inner partition walls , wherein the honeycomb segment is sintered, wherein a filling composition is disposed; the composition containing particles whose particle size is 1/100 to 1/2 of the pore diameter of the outer circumferential wall and a binder binding the particles and the insides of the second pores of the outer circumferential wall and/or binding the particles together being disposed inside the second pores of the outer circumferential wall , the filling composition being disposed by diluting the particles and the binder in water to form a slurry and coating the slurry on the outer circumferential wall of the sintered honeycomb segment, wherein the pore diameter is measured by a mercury porosimeter, wherein the value of the ratio of the porosity of the outer circumferential wall to the porosity of the inner partition walls is 0.50-0.97, wherein the porosity is measured using Archimedes' method, and wherein respective ends in adjacent cells are alternately plugged with a filling material . wherein a filling composition is disposed; the composition containing particles whose particle size is 1/100 to 1/2 of the pore diameter of the outer circumferential wall and a binder binding the particles and the insides of the second pores of the outer circumferential wall and/or binding the particles together being disposed inside the second pores of the outer circumferential wall , the filling composition being disposed by diluting the particles and the binder in water to form a slurry and coating the slurry on the outer circumferential wall of the sintered honeycomb segment, wherein the pore diameter is measured by a mercury porosimeter, wherein the value of the ratio of the porosity of the outer circumferential wall to the porosity of the inner partition walls is 0.50-0.97, wherein the porosity is measured using Archimedes' method, and wherein respective ends in adjacent cells are alternately plugged with a filling material .