mhurhangee/ep-ind-claims huggingface dataset:
A wheel axle guiding assembly comprising: - an axle box defining a horizontal revolution axis and a longitudinal horizontal direction perpendicular to the revolution axis; - an axle box carrier; and - a front longitudinal hydro-mechanical converter fixed to a front interface of the axle box and a front interface of the axle box carrier and a rear longitudinal hydro-mechanical converter fixed to a rear interface of the axle box and a rear interface of the axle box carrier to allow a fore-and-aft movement of the axle box relative to the axle box carrier parallel to the longitudinal direction; wherein each of the front and rear longitudinal hydro-mechanical converters (32, 34) includes a housing, a plunger and an elastomeric body fixed to the housing and to the plunger so as to allow a fore-and-aft relative movement parallel to the longitudinal direction between the plunger and the housing, a single variable volume hydraulic chamber being formed between the housing, the plunger and the elastomeric body, each of the front and rear longitudinal hydro-mechanical converters (32, 34) further including a hydraulic port for connecting the variable volume hydraulic chamber to an external hydraulic circuit (54, 56, 64, 66, 68, 70, 72, 74). - an axle box defining a horizontal revolution axis and a longitudinal horizontal direction perpendicular to the revolution axis; - an axle box carrier; and - a front longitudinal hydro-mechanical converter fixed to a front interface of the axle box and a front interface of the axle box carrier and a rear longitudinal hydro-mechanical converter fixed to a rear interface of the axle box and a rear interface of the axle box carrier to allow a fore-and-aft movement of the axle box relative to the axle box carrier parallel to the longitudinal direction;
A composition having a photoluminescent carbon nanoparticle dispersed in a water-soluble solvent and an alcohol, wherein: the photoluminescent carbon nanoparticle contains a carbon atom, an oxygen atom, a nitrogen atom, and a hydrogen atom if required, the photoluminescent carbon nanoparticle has an intensity of a C-N bond and/or C-O bond-derived peak (285.98 eV) larger than that of a C-C bond and/or C-H bond-derived peak (284.95 eV) in terms of X-ray photoelectron spectroscopic spectra, and the photoluminescent carbon nanoparticle exhibits a Raman spectrum having a peak based on a G-band and a D-band; wherein: in the photoluminescent carbon nanoparticle, an atomic ratio (N/C) of the nitrogen atom relative to the carbon atom is no less than 0.27 to no greater than 0.37, and an atomic ratio (O/C) of the oxygen atom relative to the carbon atom is no less than 0.35 to no greater than 0.45. the photoluminescent carbon nanoparticle contains a carbon atom, an oxygen atom, a nitrogen atom, and a hydrogen atom if required, the photoluminescent carbon nanoparticle has an intensity of a C-N bond and/or C-O bond-derived peak (285.98 eV) larger than that of a C-C bond and/or C-H bond-derived peak (284.95 eV) in terms of X-ray photoelectron spectroscopic spectra, and the photoluminescent carbon nanoparticle exhibits a Raman spectrum having a peak based on a G-band and a D-band; wherein: in the photoluminescent carbon nanoparticle, an atomic ratio (N/C) of the nitrogen atom relative to the carbon atom is no less than 0.27 to no greater than 0.37, and an atomic ratio (O/C) of the oxygen atom relative to the carbon atom is no less than 0.35 to no greater than 0.45. in the photoluminescent carbon nanoparticle, an atomic ratio (N/C) of the nitrogen atom relative to the carbon atom is no less than 0.27 to no greater than 0.37, and an atomic ratio (O/C) of the oxygen atom relative to the carbon atom is no less than 0.35 to no greater than 0.45.
A self-tanning composition for topical application to the skin comprising, by total weight of the composition: 0.01% to 10% of dihydroxyacetone; 0.05% to 30% of acrylates/VA copolymer; 0.15% to 3.25% of acrylates copolymer; and 40% to 65% of water, wherein the ratio of acrylates/VA copolymer to acrylates copolymer is 15: 1 to 25:1. 0.01% to 10% of dihydroxyacetone; 0.05% to 30% of acrylates/VA copolymer; 0.15% to 3.25% of acrylates copolymer; and 40% to 65% of water, wherein the ratio of acrylates/VA copolymer to acrylates copolymer is 15: 1 to 25:1.
A method comprising: receiving a higher layer configuration message indicating a set of resource blocks for receiving data packets in at least one symbol of a subframe, the higher layer being higher than a physical layer; attempting to decode a data packet in a first set of resource elements within the set of resource blocks, the first set of resource elements in the at least one symbol of the subframe; attempting to decode the data packet in at least a second set of resource elements within the set of resource blocks, the second set of resource elements in the at least one symbol of the subframe, where the second set of resource elements includes at least one resource element that is not in the first set of resource elements; and in response to successfully decoding the data packet in one of the first set of resource elements and the second set of resource elements delivering a data payload of the decoded data packet to an application layer. receiving a higher layer configuration message indicating a set of resource blocks for receiving data packets in at least one symbol of a subframe, the higher layer being higher than a physical layer; attempting to decode a data packet in a first set of resource elements within the set of resource blocks, the first set of resource elements in the at least one symbol of the subframe; attempting to decode the data packet in at least a second set of resource elements within the set of resource blocks, the second set of resource elements in the at least one symbol of the subframe, where the second set of resource elements includes at least one resource element that is not in the first set of resource elements; and in response to successfully decoding the data packet in one of the first set of resource elements and the second set of resource elements delivering a data payload of the decoded data packet to an application layer.
An impact protection apparatus for an aerial vehicle, the apparatus comprising: one or more inflatable members (130, 230, 330, 430, 440, 530) configured to be selectively inflatable to reduce forces experienced by the aerial vehicle during an impact; a control mechanism (120, 220, 320) configured to cause compressed gas to flow from a container into the one or more inflatable members in response to a signal indicative of malfunction of the aerial vehicle; one or more sensors configured to collect data to predict that the aerial vehicle will likely experience the impact; and a controller (140, 240, 340) in communication with the one or more sensors and the control mechanism, wherein the controller is configured to control the control mechanism to selectively inflate an inflatable member from the one or more inflatable members to protect a portion of the aerial vehicle, based on the data collected by the one or more sensors. one or more inflatable members (130, 230, 330, 430, 440, 530) configured to be selectively inflatable to reduce forces experienced by the aerial vehicle during an impact; a control mechanism (120, 220, 320) configured to cause compressed gas to flow from a container into the one or more inflatable members in response to a signal indicative of malfunction of the aerial vehicle; one or more sensors configured to collect data to predict that the aerial vehicle will likely experience the impact; and a controller (140, 240, 340) in communication with the one or more sensors and the control mechanism, wherein the controller is configured to control the control mechanism to selectively inflate an inflatable member from the one or more inflatable members to protect a portion of the aerial vehicle, based on the data collected by the one or more sensors.
Printed circuit board, comprising: a gaseous dielectric; an antenna element produced by means of a 3D printing method and comprising a waveguide section having a rectangular hollow cross section, in which the gaseous dielectric is present, and a substantially planar component carrier section shaped integrally with the waveguide section, wherein the antenna element is a horn radiator comprising a beam funnel section adjacent to the waveguide section having a funnel shape; and a microstrip (4a, 4b) applied on a surface of the component carrier section and extending to a connection transition arranged at a lateral edge of the component carrier section. a gaseous dielectric; an antenna element produced by means of a 3D printing method and comprising a waveguide section having a rectangular hollow cross section, in which the gaseous dielectric is present, and a substantially planar component carrier section shaped integrally with the waveguide section, wherein the antenna element is a horn radiator comprising a beam funnel section adjacent to the waveguide section having a funnel shape; and a microstrip (4a, 4b) applied on a surface of the component carrier section and extending to a connection transition arranged at a lateral edge of the component carrier section.
A method for identifying a signal, the method comprising the steps of: (a) determining the presence of a first signal in a predetermined frequency band wherein the first signal is a product of a second and a third signal, wherein at least one of the second and third signals is selected from the group consisting of: a modulated carrier and noise; (b) applying a predetermined cyclostationarity detection technique to the first signal and determining if the first signal comprises a predetermined characteristic of either the second or third signal; and (c) identifying the first signal from the application of the predetermined cyclostationarity detection technique to the first signal. (a) determining the presence of a first signal in a predetermined frequency band wherein the first signal is a product of a second and a third signal, wherein at least one of the second and third signals is selected from the group consisting of: a modulated carrier and noise; (b) applying a predetermined cyclostationarity detection technique to the first signal and determining if the first signal comprises a predetermined characteristic of either the second or third signal; and (c) identifying the first signal from the application of the predetermined cyclostationarity detection technique to the first signal.
Control device for controlling a stretch-reducing rolling mill for the rolling of tubes, which comprises a plurality of roll stands arranged in succession in a conveying direction of the tubes and at least one wall thickness measuring instrument which is at the outlet side and which is arranged to measure outlet-side wall thicknesses (s r) of tubes exiting the last roll stand, wherein the control device is arranged to receive measurement data, which characterise one or more outlet-side wall thicknesses (s r) of a tube exiting the last roll stand, from the wall thickness measuring instrument, characterised in that the control device is arranged to determine, preferably calculate, from the received measurement data one or more inlet-side wall thicknesses (s l_t), preferably an inlet-side wall thickness profile, of the tube in the state prior to entry into the first roll stand and to control one or more of the roll stands with consideration of the determined inlet-side wall thicknesses (s l_t).
Crimping pliers comprising a die with two die half units wherein one die half unit comprises a die half and a bearing body which is supported in a bearing accommodation associated with a pliers jaw (3; 6) such that a die half bearing is built, the die half being coupled for being rotated about a crimping axis relative to the bearing body by a rotational bearing, characterized in that the bearing body and the bearing accommodation are connected to each other by an arresting device embodied as a latching and/or locking device (75; 76), in particular with an arresting element and a counter arresting element, so that the bearing body of the die half unit can be assembled to the bearing accommodation of the pliers jaw (3; 6) and disassembled from the same without the use of any tool.
An endoscopic imaging system comprising: an endoscope having a central longitudinal axis; a light source assembly coupled to the endoscope that transmits light to the endoscope for illuminating a region of interest; an imaging unit that receives light through the endoscope reflected from the region of interest; a first battery power module coupled to the light source assembly that provides electrical power to the light source assembly; a second and different battery power module coupled to the imaging unit that provides electrical power to the imaging unit; and a first coupling means for coupling the endoscope to the light source assembly, characterised in that the endoscopic imaging system further comprises a second coupling means for coupling the light source assembly to the imaging unit (130, 505); wherein the endoscope, the light source assembly, and the imaging unit are arranged to be detachably coupled to each other via the respective coupling means (135, 140) to provide a hand held unit along the central longitudinal axis. an endoscope having a central longitudinal axis; a light source assembly coupled to the endoscope that transmits light to the endoscope for illuminating a region of interest; an imaging unit that receives light through the endoscope reflected from the region of interest; a first battery power module coupled to the light source assembly that provides electrical power to the light source assembly; a second and different battery power module coupled to the imaging unit that provides electrical power to the imaging unit; and a first coupling means for coupling the endoscope to the light source assembly, characterised in that the endoscopic imaging system further comprises a second coupling means for coupling the light source assembly to the imaging unit (130, 505); wherein the endoscope, the light source assembly, and the imaging unit are arranged to be detachably coupled to each other via the respective coupling means (135, 140) to provide a hand held unit along the central longitudinal axis.
Control system for a remote-controlled working machine provided with caterpillar tracks or the like for the travel thereof, e.g. a demolition robot intended for demolition work, etc., the said control system including a remote control intended to be carried by an operator situated beside the machine, the said remote control being connected wirelessly, e.g. via Bluetooth, or by means of a cable to at least one electronic unit in the machine, and having at least one control stick or joystick (12, 13) and a number of buttons, levers and/or knobs for operating the different travel and working functions of the machine, characterised in that, the said remote control has two control sticks or joy sticks (12, 13) each having at least two different setting modes or positions, so that both control sticks (12, 13) perform at least two different functions of work or travel, and in a travel mode, also referred to as a transport position, travel of the machine is handled entirely by one control stick (12, 13), advantageously the left control stick, such that the caterpillar tracks or the like of the machine are operated as follows: - if the control stick is moved forwards or backwards, both caterpillar tracks are driven forwards or backwards so that the machine moves forwards or backwards; - if the control stick is moved straight to the left, the right caterpillar track is driven forwards and the left caterpillar track is driven backwards so that the machine turns to the left; - if the control stick is moved straight to the right, the left caterpillar track is driven forwards and the right caterpillar track is driven backwards so that the machine turns to the right; - if the control stick is moved in a diagonal direction forwards or backwards and to the side, the abovementioned movements are combined so that the machine both turns and goes forwards or backwards. - if the control stick is moved forwards or backwards, both caterpillar tracks are driven forwards or backwards so that the machine moves forwards or backwards; - if the control stick is moved straight to the left, the right caterpillar track is driven forwards and the left caterpillar track is driven backwards so that the machine turns to the left; - if the control stick is moved straight to the right, the left caterpillar track is driven forwards and the right caterpillar track is driven backwards so that the machine turns to the right; - if the control stick is moved in a diagonal direction forwards or backwards and to the side, the abovementioned movements are combined so that the machine both turns and goes forwards or backwards.
A method for implementing a call jump from an outbound call, the method comprising: at a voice over Internet protocole, VoIP, application server: (a) receiving a session initiation protocol, SIP, INVITE message from a calling phone for initiating a call with a called phone; (b) establishing the call between the called phone and the calling phone, wherein establishing the call between the calling phone and the called phone includes sending the SIP INVITE message to a SIP gateway and wherein the SIP gateway sends a corresponding SS7 message to an end office associated with the called phone; and (c) during the call, receiving an indication from the calling phone to jump the call to a user-selected destination, and, in response to receiving the indication to jump the call, jumping the call to the destination such that the call continues between the destination and the called phone, wherein receiving the indication to jump the call includes receiving dual-tone multi-frequency, DTMF, digits from the calling phone using a SIP INFO request method. at a voice over Internet protocole, VoIP, application server: (a) receiving a session initiation protocol, SIP, INVITE message from a calling phone for initiating a call with a called phone; (b) establishing the call between the called phone and the calling phone, wherein establishing the call between the calling phone and the called phone includes sending the SIP INVITE message to a SIP gateway and wherein the SIP gateway sends a corresponding SS7 message to an end office associated with the called phone; and (c) during the call, receiving an indication from the calling phone to jump the call to a user-selected destination, and, in response to receiving the indication to jump the call, jumping the call to the destination such that the call continues between the destination and the called phone, wherein receiving the indication to jump the call includes receiving dual-tone multi-frequency, DTMF, digits from the calling phone using a SIP INFO request method. (a) receiving a session initiation protocol, SIP, INVITE message from a calling phone for initiating a call with a called phone; (b) establishing the call between the called phone and the calling phone, wherein establishing the call between the calling phone and the called phone includes sending the SIP INVITE message to a SIP gateway and wherein the SIP gateway sends a corresponding SS7 message to an end office associated with the called phone; and (c) during the call, receiving an indication from the calling phone to jump the call to a user-selected destination, and, in response to receiving the indication to jump the call, jumping the call to the destination such that the call continues between the destination and the called phone, wherein receiving the indication to jump the call includes receiving dual-tone multi-frequency, DTMF, digits from the calling phone using a SIP INFO request method.
A cooking device comprising a cooking volume wherein the foods to be cooked are placed, a steam generator which has a body and a ceiling that covers the upper face of the body, an inlet which allows water to enter the steam generator, an outlet which allows the steam generated in the steam generator to exit the steam generator, wherein the inlet and the outlet are disposed on the ceiling, and wherein the inlet comprises a hollow cylinder on the ceiling, characterized in that in front of the inlet under the ceiling a hollow cylinder is shaped as a first extension of an inlet stopper, such as to be a prolongation of the hollow cylinder of the inlet, said inlet stopper further having - an orifice disposed on the first extension and which allows the passage of the water from the inlet into the steam generator and - a ridge disposed opposite the inlet at the lower end of the first extension, which at least partially closes the opposite side of the inlet, to which the water entering the first extension from the inlet impacts and which provides the said water to be slowed down before it is received into the steam generator from the orifice. - an orifice disposed on the first extension and which allows the passage of the water from the inlet into the steam generator and - a ridge disposed opposite the inlet at the lower end of the first extension, which at least partially closes the opposite side of the inlet, to which the water entering the first extension from the inlet impacts and which provides the said water to be slowed down before it is received into the steam generator from the orifice.
A control system for controlling disconnection of a riser system that extends between a vessel and a subsea location that comprises a wellbore, the riser system accommodating a string, - wherein the control system is configured to, when a loss of a power source is detected, enter an emergency disconnect monitoring procedure - wherein the control system is configured to disconnect the riser system according to a sequence of operations, the sequence of operations comprising disconnecting the riser system, and at least one of cutting the string and/or sealing the well bore, the control system, in the emergency disconnect monitoring procedure, being configured to ∘ determine a position of the vessel ∘ determine a drift of the vessel ∘ determine one or more properties of the riser system; ∘ determine if a disconnect condition has been met based on the determined position of the vessel, the determined drift of the vessel, and the determined one or more properties of the riser system; and ∘ disconnect the riser system when a disconnect condition has been met, wherein the control system is configured to disconnect the riser system prior to or simultaneous with cutting the string and/or sealing the well bore. - wherein the control system is configured to, when a loss of a power source is detected, enter an emergency disconnect monitoring procedure - wherein the control system is configured to disconnect the riser system according to a sequence of operations, the sequence of operations comprising disconnecting the riser system, and at least one of cutting the string and/or sealing the well bore, the control system, in the emergency disconnect monitoring procedure, being configured to ∘ determine a position of the vessel ∘ determine a drift of the vessel ∘ determine one or more properties of the riser system; ∘ determine if a disconnect condition has been met based on the determined position of the vessel, the determined drift of the vessel, and the determined one or more properties of the riser system; and ∘ disconnect the riser system when a disconnect condition has been met, wherein the control system is configured to disconnect the riser system prior to or simultaneous with cutting the string and/or sealing the well bore. ∘ determine a position of the vessel ∘ determine a drift of the vessel ∘ determine one or more properties of the riser system; ∘ determine if a disconnect condition has been met based on the determined position of the vessel, the determined drift of the vessel, and the determined one or more properties of the riser system; and ∘ disconnect the riser system when a disconnect condition has been met, wherein the control system is configured to disconnect the riser system prior to or simultaneous with cutting the string and/or sealing the well bore.