mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for detecting the presence of Cheyne-Stokes breathing comprising: (i) means for monitoring a signal indicative of respiratory flow of a patient; (ii) means for detection of at least one region of a hyperpnoea following a hypopnea or apnea in said signal; (iii) means for determining a presence of a peak in a spectrogram of said signal; (iv) means for analyzing said signal to determine a rate of increase in the region from the hypopnea or apnea to the hyperpnoea, wherein said means is adapted to distinguish a slow increase from a sudden increase, wherein the sudden increase of the flow rate is faster than the slow increase of the flow rate; and (v) means for determining the presence of Cheyne-Stokes breathing when said peak is present and said rate of increase is a slow increase. (i) means for monitoring a signal indicative of respiratory flow of a patient; (ii) means for detection of at least one region of a hyperpnoea following a hypopnea or apnea in said signal; (iii) means for determining a presence of a peak in a spectrogram of said signal; (iv) means for analyzing said signal to determine a rate of increase in the region from the hypopnea or apnea to the hyperpnoea, wherein said means is adapted to distinguish a slow increase from a sudden increase, wherein the sudden increase of the flow rate is faster than the slow increase of the flow rate; and (v) means for determining the presence of Cheyne-Stokes breathing when said peak is present and said rate of increase is a slow increase.
An attachment for a kitchen machine; the attachment comprising a kit of parts selectively configurable into a meat grinder or an ice-crusher and the kit of parts comprising a common component set including: (a) a hollow main body part having a processing cavity therein and a scroll-type screw extruder tool which can rotate within the processing cavity when driven by the machine; (b) a hopper for allowing meat products or ice to be introduced into the processing cavity; (c) first coupling means for coupling the main body part to cooperative receiving means on the kitchen machine such that said scroll-type processing tool can be driven in rotation by way of a drive outlet on the kitchen machine; and (d) second coupling means for coupling a selected apertured extrusion die to an output port of said main body part such that processed meat products or ice can exit the attachment via the die; the kit being characterised by the provision of: (e) at least one die adapted for use in meat grinding; and (f) at least one die adapted for use in ice-crushing; wherein said dies are configured for alternative fitment to said common component set to convert said attachment from a meat-grinding attachment to an ice-crushing attachment, or vice versa. (a) a hollow main body part having a processing cavity therein and a scroll-type screw extruder tool which can rotate within the processing cavity when driven by the machine; (b) a hopper for allowing meat products or ice to be introduced into the processing cavity; (c) first coupling means for coupling the main body part to cooperative receiving means on the kitchen machine such that said scroll-type processing tool can be driven in rotation by way of a drive outlet on the kitchen machine; and (d) second coupling means for coupling a selected apertured extrusion die to an output port of said main body part such that processed meat products or ice can exit the attachment via the die; (e) at least one die adapted for use in meat grinding; and (f) at least one die adapted for use in ice-crushing;
Surface heat exchanger, in particular for air-conditioning rooms, comprising a mounting plate (11, 12) and a pipe system for conducting a medium along the mounting plate (11, 12), the pipe system being fixed to the mounting plate with the aid of strip-like heat conducting plates which overlap the pipe system on both sides in a closed manner, characterised in that at least one wing projecting from the mounting plate (11, 12) is associated with each of the heat conducting plates, which wing is formed by an element (23, 23', 23", 23′′′) that is separate with respect to the heat conducting plate and the mounting plate (11, 12).
Device for the detachable connection of an additional wheel rim to a vehicle wheel rim, particularly that of an agricultural vehicle such as a tractor, wherein the device comprises a spacer ring and several tie rods; wherein the two wheel rims (3, 4), with the spacer ring in between, are detachably connectable concentrically to one another by means of the tie rods distributed circumferentially relative to the rims (3, 4); wherein the tie rods are detachably engageable at their vehicleside end with respective retaining means on the vehicle wheel rim and at their additional-wheel-side end with retaining means arranged on the additional wheel rim or on the spacer ring; wherein each tie rod can be subjected to tensile stress by one tensioning device each to connect the rims (3, 4) and can be relaxed to separate the rims (3, 4); and wherein each tie rod is in the form of two tie rod sections (21, 22) with counter-rotating thread ends (21', 22') and with a rotatable turnbuckle serving as the tensioning device arranged between the tie rod sections (21, 22), characterized in that each turnbuckle is provided with a manually operable ratchet to turn the turnbuckle.
A multilayer dash isolation pad comprising: a decoupler; and a sound absorption and insulation layer, characterized in that the decoupler is manufactured from urethane foam or a felt made of octalobal cross-section fiber, and the sound absorption and insulation layer comprises a compressed felt manufactured from octalobal cross-section fibers, and a shape factor (α) of the octalobal cross-section fiber is of about 2.0 to 2.7, wherein the shape factor (α) is represented by the following Equation 1, Shape factor α = P 4 πA a cross-section circumference length of the fiber is of about 200 to 250 μ m, and a cross-sectional area of the fiber is of about 700 to 800 μ m 2. a decoupler; and a sound absorption and insulation layer, characterized in that the decoupler is manufactured from urethane foam or a felt made of octalobal cross-section fiber, and the sound absorption and insulation layer comprises a compressed felt manufactured from octalobal cross-section fibers, and a shape factor (α) of the octalobal cross-section fiber is of about 2.0 to 2.7, wherein the shape factor (α) is represented by the following Equation 1, Shape factor α = P 4 πA a cross-section circumference length of the fiber is of about 200 to 250 μ m, and a cross-sectional area of the fiber is of about 700 to 800 μ m 2.
A filter module comprising a housing having a fluid inlet and a fluid outlet, said housing enclosing a tubular, elongate filter element defining a longitudinal axis and a cleaning head connected by means of a conduit to a coaxially arranged and rotatably mounted pipe, said cleaning head being resiliently biased towards the internal surface of said tubular, elongate filter element, wherein said cleaning head has an opening facing said internal surface of said filter element and providing fluid communication between the interior of said housing and the interior of said pipe; means for creating a pressure difference between the interior of said housing and the interior of said pipe so as to cause a fluid flow from the interior of said housing to the interior of said pipe; means for effecting a rotation of said pipe; and characterized in that a spacer element is rotatably supported on and releasably attached to said cleaning head, said spacer element defining the minimum spacing between the cleaning head and the internal surface of said filter element, and in that the cleaning head has an opening of adjustable size.
A system for heat treating an alloy steel component, comprising: a. a first enclosure; b. a second enclosure opposed to the first enclosure, wherein the first and second enclosures define a chamber around only a portion of the alloy steel component; c. a heating element; d. at least one drain port through at least one of the first enclosure or the second enclosure; e. a vacuum pump connected to at least one of the first enclosure or the second enclosure; f. an airtight chamber; and characterized in that the heating element is provided in the chamber to heat the portion of the alloy steel component and further each of the first and second enclosures (14, 16) comprises an interface face adapted and configured to be placed against the alloy steel component, whereby the interface between each of the first and second enclosures and the alloy steel component is airtight. a. a first enclosure; b. a second enclosure opposed to the first enclosure, wherein the first and second enclosures define a chamber around only a portion of the alloy steel component; c. a heating element; d. at least one drain port through at least one of the first enclosure or the second enclosure; e. a vacuum pump connected to at least one of the first enclosure or the second enclosure; f. an airtight chamber; and characterized in that the heating element is provided in the chamber to heat the portion of the alloy steel component and further each of the first and second enclosures (14, 16) comprises an interface face adapted and configured to be placed against the alloy steel component, whereby the interface between each of the first and second enclosures and the alloy steel component is airtight.
Protective hood rotation prevention device of a power tool, in particular of an angle grinder, having at least one clamping unit, which is provided for clamping a protective hood unit and which comprises at least one clamping element, having at least one a rotation prevention unit, which has at least one rotation prevention element, and having at least one movement coupling unit, which is provided to move the rotation prevention element, in dependence on a movement of the clamping element, in at least one operating state, wherein at least one securing unit is provided, in the case of a movement of the clamping element in a loosening direction of the clamping element, to secure the rotation prevention element, at least to a very large extent, against a movement along a decoupling direction of the rotation prevention element, out of a rotation prevention position of the rotation prevention element, in at least one operating state, characterized in that the rotation prevention element has at least one stop surface, which acts in combination at least with the securing element of the securing unit, in at least one operating state.
A system for producing reverse thrust in a multi-engine aircraft, comprising: a first engine controller for a first engine of the aircraft, the first engine controller configured for: obtaining a first power request for the first engine for producing reverse thrust; and determining a first blade angle for a first propeller, the first propeller coupled to the first engine; and a second engine controller for a second engine of the aircraft, the second engine controller communicatively coupled to the first engine controller and configured for: obtaining a second power request for the second engine for producing reverse thrust; determining a second blade angle for a second propeller, the second propeller coupled to the second engine; obtaining, from the first engine controller, the first power request for the first engine and the first blade angle for the first propeller; and when the first power request is indicative of a request for producing reverse thrust and when the first and second blade angles are beyond a predetermined threshold, commanding, via the first engine controller, the first engine to produce reverse thrust based on the second power request. a first engine controller for a first engine of the aircraft, the first engine controller configured for: obtaining a first power request for the first engine for producing reverse thrust; and determining a first blade angle for a first propeller, the first propeller coupled to the first engine; and obtaining a first power request for the first engine for producing reverse thrust; and determining a first blade angle for a first propeller, the first propeller coupled to the first engine; and a second engine controller for a second engine of the aircraft, the second engine controller communicatively coupled to the first engine controller and configured for: obtaining a second power request for the second engine for producing reverse thrust; determining a second blade angle for a second propeller, the second propeller coupled to the second engine; obtaining, from the first engine controller, the first power request for the first engine and the first blade angle for the first propeller; and when the first power request is indicative of a request for producing reverse thrust and when the first and second blade angles are beyond a predetermined threshold, commanding, via the first engine controller, the first engine to produce reverse thrust based on the second power request. obtaining a second power request for the second engine for producing reverse thrust; determining a second blade angle for a second propeller, the second propeller coupled to the second engine; obtaining, from the first engine controller, the first power request for the first engine and the first blade angle for the first propeller; and when the first power request is indicative of a request for producing reverse thrust and when the first and second blade angles are beyond a predetermined threshold, commanding, via the first engine controller, the first engine to produce reverse thrust based on the second power request.
Method for using an interactive response system with a mobile device, the method comprising initiating, by a user, an interactive response system session with an interactive response system using a first electronic device; the interactive response system establishing the interactive response system session with the first electronic device, the interactive response system session comprising an interactive response system tree and the first electronic device being presented a current level of the interactive response system tree; the user identifying a second electronic device to the interactive response system; the interactive response system providing, over a network, the current level of the interactive response system tree to a mobile application executed by the second electronic device; receiving an interactive response system tree selection from the mobile application executed by the second electronic device.
Printing machine comprising: a. a guide; b. at least one printing station located along said guide; c. at least one supporting station for supporting a product to be printed by said printing station; d. at least a first and a second positioning units (20a, 20b) mounted along said guide, at least one of said positioning units (20a, 20b) being located at said printing station; wherein said supporting station includes: a. a motor substantially integral with said supporting station for moving said supporting station along said guide; b. an acquisition device capable of acquiring an identification code (ID1, ID2) from each of said positioning units (20a, 20b) when said supporting station is at each of said positioning units (20a, 20b); characterised in that said supporting station further includes: c. a memory wherein reference codes (Ref1, Ref2) corresponding to said identification codes (ID1, ID2) and at least one reference distance (DRef) corresponding to a distance between said first and second positioning units (20a, 20b) are stored; d. a processing unit configured to control said motor based on the acquired identification codes (ID1, ID2) and on the reference codes (Ref1, Ref2) and reference distance (DRef) stored in said memory. a. a guide; b. at least one printing station located along said guide; c. at least one supporting station for supporting a product to be printed by said printing station; d. at least a first and a second positioning units (20a, 20b) mounted along said guide, at least one of said positioning units (20a, 20b) being located at said printing station; a. a motor substantially integral with said supporting station for moving said supporting station along said guide; b. an acquisition device capable of acquiring an identification code (ID1, ID2) from each of said positioning units (20a, 20b) when said supporting station is at each of said positioning units (20a, 20b); characterised in that said supporting station further includes: c. a memory wherein reference codes (Ref1, Ref2) corresponding to said identification codes (ID1, ID2) and at least one reference distance (DRef) corresponding to a distance between said first and second positioning units (20a, 20b) are stored; d. a processing unit configured to control said motor based on the acquired identification codes (ID1, ID2) and on the reference codes (Ref1, Ref2) and reference distance (DRef) stored in said memory.
A method of determining a distance between a first device and a second device at the second device, the method comprising: based on a first modulated message being received from the first device, identifying a first time when the first modulated message is received at the second device; transmitting a second modulated message to the first device in response to the first modulated message and identifying a second time when the second modulated message is transmitted from the second device; receiving a third modulated message comprising a first time difference from the first device, wherein the first time difference is a difference between a third time when the first modulated message is transmitted from the first device and a fourth time when the second modulated message is received at the first device; determining the distance between the first device and the second device based on a difference between the first time difference and a second time difference, wherein the second time difference is a difference between the first time and the second time; and locking or unlocking the second device according to the distance between the first device and the second device. based on a first modulated message being received from the first device, identifying a first time when the first modulated message is received at the second device; transmitting a second modulated message to the first device in response to the first modulated message and identifying a second time when the second modulated message is transmitted from the second device; receiving a third modulated message comprising a first time difference from the first device, wherein the first time difference is a difference between a third time when the first modulated message is transmitted from the first device and a fourth time when the second modulated message is received at the first device; determining the distance between the first device and the second device based on a difference between the first time difference and a second time difference, wherein the second time difference is a difference between the first time and the second time; and locking or unlocking the second device according to the distance between the first device and the second device.
An image generating device, comprising: a captured image inputting module configured to acquire an image captured by an imaging device, the imaging device being installed in a vessel; a position acquiring module configured to acquire positional information indicative of a position of the vessel; a posture acquiring module configured to acquire posture information indicative of a posture of the vessel; an additional display information acquiring module configured to acquire additional display information based on information of an item outputted to the image generating device and obtained according to the purpose and the function of the vessel instruments connected to the image generating device, wherein the additional display information includes information indicative of positions of one or more locations on the water surface at which the item is placed; a synthesized image generating module configured to generate a synthesized image where a graphic rendering a three-dimensional virtual reality object indicative of the additional display information is synthesized on the captured image based on the positional information, the posture information, and the additional display information, and place the graphic across a boundary of an area with the captured image and an area without the captured image when the captured image is placed only in a certain portion of the synthesized image; and a viewpoint setting module configured to set a viewpoint of the synthesized image generated by the synthesized image generating module. a captured image inputting module configured to acquire an image captured by an imaging device, the imaging device being installed in a vessel; a position acquiring module configured to acquire positional information indicative of a position of the vessel; a posture acquiring module configured to acquire posture information indicative of a posture of the vessel; an additional display information acquiring module configured to acquire additional display information based on information of an item outputted to the image generating device and obtained according to the purpose and the function of the vessel instruments connected to the image generating device, wherein the additional display information includes information indicative of positions of one or more locations on the water surface at which the item is placed; a synthesized image generating module configured to generate a synthesized image where a graphic rendering a three-dimensional virtual reality object indicative of the additional display information is synthesized on the captured image based on the positional information, the posture information, and the additional display information, and place the graphic across a boundary of an area with the captured image and an area without the captured image when the captured image is placed only in a certain portion of the synthesized image; and a viewpoint setting module configured to set a viewpoint of the synthesized image generated by the synthesized image generating module.
A method for wireless communication performed by a wireless node (204, 208, 610, 650), wherein the wireless node (204, 208, 610, 650) comprises a wireless node of a first type, the method comprising: determining an interlace structure of tones (802, 804, 806, 808), within an unlicensed radio frequency, RF, spectrum, available to the wireless node for communication, wherein a first interlace structure is used for communication by devices of the first type and a second interlace structure is used for communication by devices of a second type, wherein the first type is a narrowband internet of things, NB-IoT, device, a machine type communications, MTC, device, or an enhanced MTC, eMTC, device and the second type is a different type of LTE device; and communicating based on the first interlace structure, wherein the communicating involves hopping between tones (802, 804, 806, 808) within the first interlace structure during different communication intervals. determining an interlace structure of tones (802, 804, 806, 808), within an unlicensed radio frequency, RF, spectrum, available to the wireless node for communication, wherein a first interlace structure is used for communication by devices of the first type and a second interlace structure is used for communication by devices of a second type, wherein the first type is a narrowband internet of things, NB-IoT, device, a machine type communications, MTC, device, or an enhanced MTC, eMTC, device and the second type is a different type of LTE device; and communicating based on the first interlace structure, wherein the communicating involves hopping between tones (802, 804, 806, 808) within the first interlace structure during different communication intervals.