mhurhangee/ep-ind-claims huggingface dataset:
A machine gun comprising an ammunition belt traction mechanism comprising an ejection mechanism for ejecting the last two links of said belt, said ejection mechanism comprising a mobile ratchet for ejecting the last two links suitable for pushing on the next-to-last link and suitable for being actuated by the movable parts of the machine gun in which the mobile ratchet for ejecting the last two links is secured to the belt traction mechanism and the belt traction mechanism comprises a mobile ratchet (15, 16) pushing, during use, against an ammunition item, said ratchet (15, 16) pushing against the ammunition item and the ejection ratchet for ejecting the last two links being actuated by a same lever actuated by the movement of the movable parts of the machine gun, characterized in that the ejection ratchet for ejecting the last two links and the advance ratchet (15, 16) are made in a single piece, the ejection ratchet being arranged slightly withdrawn from the advance ratchet (15, 16) in the middle of the belt or in that the ejection ratchet and the advance ratchet (15, 16) are made up of two parts rotating about a same axis and secured via a resilient part such as a spring or a spring leaf.
A device comprising: at least one pulse portable detection unit (g), a base unit (h), and a storage system, wherein the pulse portable detection unit (g) comprises at least three pressure sensors configured to provide an air gap (m) between the sensors and the pulsating substrate to sense the pulse at the vata, pitta and kapha locations on the wrist of a subject, an accelerometer system (j), and a controller (ad) for controlled acquisition of signals by the said pressure sensors and said accelerometer system; and wherein the powered base unit (h) is operable connected to the storage unit selected from a communication device, a computer or a cloud based storage. wherein the pulse portable detection unit (g) comprises at least three pressure sensors configured to provide an air gap (m) between the sensors and the pulsating substrate to sense the pulse at the vata, pitta and kapha locations on the wrist of a subject, an accelerometer system (j), and a controller (ad) for controlled acquisition of signals by the said pressure sensors and said accelerometer system; and wherein the powered base unit (h) is operable connected to the storage unit selected from a communication device, a computer or a cloud based storage.
An in-vehicle speaker comprising: a casing (10, 20); a frame member enclosed in the casing (10, 20); a diaphragm enclosed in the casing (10, 20), the outer peripheral portion of the diaphragm being supported by the frame member; and a magnetic drive unit configured to drive the diaphragm, wherein the inside of the casing (10, 20) is separated into a sound producing space (Sa) and an antiphase space (Sb) by the diaphragm serving as a boundary, wherein the casing (10, 20) is composed of a first casing that forms the sound producing space (Sa) therein and a second casing that forms the antiphase space (Sb) therein, wherein the first casing has a sound emitting port that enables the sound producing space (Sa) to communicate with an interior space of a vehicle, wherein the second casing includes a lid portion located at the antiphase space side to cover the diaphragm and an opening portion that opens along a peripheral portion of the lid portion, and wherein the opening portion enables the antiphase space (Sb) to communicate with a non-interior space of the vehicle, a plurality of fins are arranged at intervals in the opening portion along the peripheral portion of the lid portion, an air passage is formed between every adjacent two of the fins, characterized in that each of the fins extends oblique at an angle to a respective imaginary line (Fd), which extends from a vibration center line of the diaphragm in a radial direction to the corresponding fin in a cross-sectional plan view of the fins provided in the opening portion. a casing (10, 20); a frame member enclosed in the casing (10, 20); a diaphragm enclosed in the casing (10, 20), the outer peripheral portion of the diaphragm being supported by the frame member; and a magnetic drive unit configured to drive the diaphragm, wherein the inside of the casing (10, 20) is separated into a sound producing space (Sa) and an antiphase space (Sb) by the diaphragm serving as a boundary, wherein the casing (10, 20) is composed of a first casing that forms the sound producing space (Sa) therein and a second casing that forms the antiphase space (Sb) therein, wherein the first casing has a sound emitting port that enables the sound producing space (Sa) to communicate with an interior space of a vehicle, wherein the second casing includes a lid portion located at the antiphase space side to cover the diaphragm and an opening portion that opens along a peripheral portion of the lid portion, and wherein the opening portion enables the antiphase space (Sb) to communicate with a non-interior space of the vehicle, a plurality of fins are arranged at intervals in the opening portion along the peripheral portion of the lid portion, an air passage is formed between every adjacent two of the fins, characterized in that each of the fins extends oblique at an angle to a respective imaginary line (Fd), which extends from a vibration center line of the diaphragm in a radial direction to the corresponding fin in a cross-sectional plan view of the fins provided in the opening portion.
A mobile harvesting machine, comprising: a propulsion system; feedrate control logic that identifies a feedrate difference between a prescribed feedrate of material through the mobile harvesting machine and a sensed feedrate of material through the mobile harvesting machine and that generates a speed request signal to modify a speed of the mobile harvesting machine based on the feedrate difference; and a control system that receives the speed request signal and generates a speed control signal to control the propulsion system based on the speed request signal, characterized in that the feedrate control logic receives an indication of wheel slippage on the mobile harvesting machine and generates the speed request signal based on the indication of wheel slippage. a propulsion system; feedrate control logic that identifies a feedrate difference between a prescribed feedrate of material through the mobile harvesting machine and a sensed feedrate of material through the mobile harvesting machine and that generates a speed request signal to modify a speed of the mobile harvesting machine based on the feedrate difference; and a control system that receives the speed request signal and generates a speed control signal to control the propulsion system based on the speed request signal, characterized in that the feedrate control logic receives an indication of wheel slippage on the mobile harvesting machine and generates the speed request signal based on the indication of wheel slippage.
A method of embedding information into an image, the method comprising: deriving a block of IWT (integer wavelet transform) coefficients for at least one frequency sub-band of an image; determining a mean value of said coefficients within said block; and modifying the determined mean value to embed one of a logical-0 bit value and a logical-1 bit value corresponding to the information into said block, wherein embedding a logical-1 bit value into said block comprises shifting at least one coefficient of a block in an HL 1 or LH 1 sub-band by a shift quantity and shifting at least one coefficient of an associated block in an LL 1 sub-band by one quarter of said shift quantity; and wherein embedding a logical-0 bit value into said block is by maintaining said mean value unchanged. deriving a block of IWT (integer wavelet transform) coefficients for at least one frequency sub-band of an image; determining a mean value of said coefficients within said block; and modifying the determined mean value to embed one of a logical-0 bit value and a logical-1 bit value corresponding to the information into said block, wherein embedding a logical-1 bit value into said block comprises shifting at least one coefficient of a block in an HL 1 or LH 1 sub-band by a shift quantity and shifting at least one coefficient of an associated block in an LL 1 sub-band by one quarter of said shift quantity; and wherein embedding a logical-0 bit value into said block is by maintaining said mean value unchanged.
A coordinate measuring machine comprising a base provided with first guiding means along a first horizontal axis, a first carriage mobile on the base along said first axis and provided with second guiding means extending along a second axis orthogonal to the first axis, a second carriage carried by the first carriage and sliding along said second axis, and an arm carried by the second carriage extending along a third axis orthogonal to the first and to the second axis (X, Z) and mobile along said third axis, the base having a lower structure (13, 14) and a top wall forming two wings protruding laterally from the lower structure (13, 14), characterised in that said first guiding means consist of two guides fastened underneath the respective wings to the bottom surface thereof, said top wall having an upper surface that is free from guides.
A method for transmitting aperiodically feedback channel state information CSI in a wireless access system supporting multicarrier aggregation, the method comprising: receiving, by a user equipment UE, a physical downlink control channel PDCCH signal including a carrier indicator field and a CSI request field, the CSI request field indicating that an aperiodic CSI feedback is triggered for two or more cells; receiving, by the UE, a radio resource control RRC signal including information indicating the two or more cells for which the aperiodic CSI feedback is triggered; and transmitting, by the UE, a physical uplink shared channel PUSCH signal including the aperiodic CSI feedback for the two or more cells indicated by the information, wherein the PUSCH signal is transmitted via an uplink cell indicated by the carrier indicator field. receiving, by a user equipment UE, a physical downlink control channel PDCCH signal including a carrier indicator field and a CSI request field, the CSI request field indicating that an aperiodic CSI feedback is triggered for two or more cells; receiving, by the UE, a radio resource control RRC signal including information indicating the two or more cells for which the aperiodic CSI feedback is triggered; and transmitting, by the UE, a physical uplink shared channel PUSCH signal including the aperiodic CSI feedback for the two or more cells indicated by the information, wherein the PUSCH signal is transmitted via an uplink cell indicated by the carrier indicator field.
Papermachine clothing, in particular a press felt for a paper-, cardboard-, or tissue-making machine, having a load-bearing base fabric. which extends in the longitudinal and transverse directions (L, Q) of the fabrics and which comprises, in particular is formed from, a) a longitudinal reinforcement module which substantially provides dimensional stability in the longitudinal direction of the fabrics, and b) a transverse reinforcement module which at least partially, in particular substantially, provides dimensional stability in the transverse direction of the fabrics, and which is disposed on the longitudinal reinforcement module and is connected thereto, characterized in that the transverse reinforcement module comprises at least one material portion which is constructed from a warp-knitted fabric which is formed from at least one system of warp threads which longitudinally extend so as to be mutually parallel and of stitching threads (4, 5) which form loops (6, 7), wherein the stitching threads (4, 5) forming the loops (6, 7) comprise at least one system of first stitching threads which run so as to be oblique or transverse to the warp threads and which interconnect the warp threads so as to form a two-dimensional textile structure, and wherein the warp threads longitudinally extend transversely to the longitudinal direction of the fabrics and have a higher flexural stiffness than the first stitching threads. a) a longitudinal reinforcement module which substantially provides dimensional stability in the longitudinal direction of the fabrics, and b) a transverse reinforcement module which at least partially, in particular substantially, provides dimensional stability in the transverse direction of the fabrics, and which is disposed on the longitudinal reinforcement module and is connected thereto, characterized in that the transverse reinforcement module comprises at least one material portion which is constructed from a warp-knitted fabric which is formed from at least one system of warp threads which longitudinally extend so as to be mutually parallel and of stitching threads (4, 5) which form loops (6, 7), wherein the stitching threads (4, 5) forming the loops (6, 7) comprise at least one system of first stitching threads which run so as to be oblique or transverse to the warp threads and which interconnect the warp threads so as to form a two-dimensional textile structure, and wherein the warp threads longitudinally extend transversely to the longitudinal direction of the fabrics and have a higher flexural stiffness than the first stitching threads.
Use of a catalytic system constituted by (a) a strongly acidic ion-exchange resin-type polymeric catalyst, and (b) a (co)oligomerization additive of general formula R 1 -E-R 2 in which E represents an element of group 16; R 1 represents a hydrogen or deuterium atom; R 2 represents a hydrogen or deuterium atom, or a group of formula -E 14 (R 14)(R' 14)(R" 14); E 14 is an element of group 14; R 14, R' 14 and R" 14 represent, independently, the hydrogen atom; the deuterium atom; one of the following substituted or non-substituted radicals: alkyl, cycloalkyl or aryl, and in which said substituent or substituents are chosen from: halo, hydroxy, alkyl, alkoxy, cycloalkyl, cycloalkoxy, aryl, aryloxy, carboxy, alkoxycarbonyl, cycloalkoxycarbonyl and aryloxycarbonyl, for the (co)oligomerization of lactide and glycolide by ring opening, characterized in that the quantity of monomer relative to the (co)oligomerization additive is comprised between 2 and 30 molar equivalents. (a) a strongly acidic ion-exchange resin-type polymeric catalyst, and (b) a (co)oligomerization additive of general formula R 1 -E-R 2 in which E represents an element of group 16; R 1 represents a hydrogen or deuterium atom; R 2 represents a hydrogen or deuterium atom, or a group of formula -E 14 (R 14)(R' 14)(R" 14); E 14 is an element of group 14; R 14, R' 14 and R" 14 represent, independently, the hydrogen atom; the deuterium atom; one of the following substituted or non-substituted radicals: alkyl, cycloalkyl or aryl, and in which said substituent or substituents are chosen from: halo, hydroxy, alkyl, alkoxy, cycloalkyl, cycloalkoxy, aryl, aryloxy, carboxy, alkoxycarbonyl, cycloalkoxycarbonyl and aryloxycarbonyl, E represents an element of group 16; R 1 represents a hydrogen or deuterium atom; R 2 represents a hydrogen or deuterium atom, or a group of formula -E 14 (R 14)(R' 14)(R" 14); E 14 is an element of group 14; R 14, R' 14 and R" 14 represent, independently, the hydrogen atom; the deuterium atom; one of the following substituted or non-substituted radicals: alkyl, cycloalkyl or aryl, and in which said substituent or substituents are chosen from: halo, hydroxy, alkyl, alkoxy, cycloalkyl, cycloalkoxy, aryl, aryloxy, carboxy, alkoxycarbonyl, cycloalkoxycarbonyl and aryloxycarbonyl,
An liquid cartridge comprising: a liquid storing portion configured to store liquid; and a liquid outlet path communicating with an interior of the liquid storing portion, wherein the liquid outlet path is configured to receive a longitudinal object inserted into the liquid outlet path from an outside of the liquid cartridge, characterized by further comprising a detector (66; 266; 566) configured to detect that the longitudinal object is at a predetermined range of positions within the liquid outlet path. a liquid storing portion configured to store liquid; and a liquid outlet path communicating with an interior of the liquid storing portion, wherein the liquid outlet path is configured to receive a longitudinal object inserted into the liquid outlet path from an outside of the liquid cartridge, characterized by further comprising a detector (66; 266; 566) configured to detect that the longitudinal object is at a predetermined range of positions within the liquid outlet path.
A trombone slide position indicator device for use with a trombone, the trombone including an inner slide, a mouthpiece receiver fixed to the inner slide, and an outer slide movable relative to the inner slide, the trombone slide position indicator device comprising: a trombone slide position rod adapted to be mounted to the trombone in a fixed position so that the trombone slide position rod remains fixed upon movement of the outer slide relative to the inner slide; a plurality of slide position indicators provided on the slide position rod, at positions along the length of the slide position rod corresponding to certain pitches or notes associated with a given trombone outer slide position; characterized by including a sensor guide mountable on the outer slide for movement with the outer slide and in relation to the fixed slide position rod, the sensor guide comprising a mechanism for detecting close proximity to any one of the slide position indicators along the slide position rod; and wherein the sensor guide is adapted to generate a tactile cue to a user of the trombone as the sensor guide passes in close proximity to any one of the slide position indicators along the slide position rod. a trombone slide position rod adapted to be mounted to the trombone in a fixed position so that the trombone slide position rod remains fixed upon movement of the outer slide relative to the inner slide; a plurality of slide position indicators provided on the slide position rod, at positions along the length of the slide position rod corresponding to certain pitches or notes associated with a given trombone outer slide position; characterized by including a sensor guide mountable on the outer slide for movement with the outer slide and in relation to the fixed slide position rod, the sensor guide comprising a mechanism for detecting close proximity to any one of the slide position indicators along the slide position rod; and wherein the sensor guide is adapted to generate a tactile cue to a user of the trombone as the sensor guide passes in close proximity to any one of the slide position indicators along the slide position rod.
A system for treating a patient's pain, comprising: an implantable pulse generator coupleable to an implantable signal delivery device for directing an electrical stimulation signal to a target neural population, the implantable pulse generator including a machine-readable medium containing instructions for generating and transmitting the electrical stimulation signal, responding to an indication corresponding to a synchronous neural response from the target neural population by adjusting the frequency of the electrical stimulation signal, and responding to an indication corresponding to an asynchronous neural response from the target neural population by maintaining the frequency of the electrical stimulation signal. an implantable pulse generator coupleable to an implantable signal delivery device for directing an electrical stimulation signal to a target neural population, the implantable pulse generator including a machine-readable medium containing instructions for generating and transmitting the electrical stimulation signal, responding to an indication corresponding to a synchronous neural response from the target neural population by adjusting the frequency of the electrical stimulation signal, and responding to an indication corresponding to an asynchronous neural response from the target neural population by maintaining the frequency of the electrical stimulation signal. generating and transmitting the electrical stimulation signal, responding to an indication corresponding to a synchronous neural response from the target neural population by adjusting the frequency of the electrical stimulation signal, and responding to an indication corresponding to an asynchronous neural response from the target neural population by maintaining the frequency of the electrical stimulation signal.
A woven geosynthetic fabric having a weft direction and a warp direction, comprising: weft yarns (20, 30) woven in the weft direction and warp yarns woven in the warp direction interweaving the weft yarns (20, 30) in a plain weave pattern or a twill weave pattern to form a fabric; the fabric having an apparent opening size of at least 30 as measured in accordance with ASTM International Standard D4751 and a water flow rate of at least 51 l/sec/m 2 (75 gpm/ft 2) as measured in accordance with ASTM International Standard D4491; the fabric having a repeating pattern of at least one yarn disposed in a first shed and at least one yarn in a second shed, each of the first shed and second shed being a separation between upper and lower warp yarns through which the weft yarns (20, 30) are woven, the first shed comprising a weft yarn that is a monofilament yarn, the second shed comprising a weft yarn that is a fibrillated tape, and the fabric having a tensile strength of at least 17.5 kN/m (100 lb/in) at 2% strain in both the warp and weft directions as respectively measured in accordance with ASTM International Standard D4595. weft yarns (20, 30) woven in the weft direction and warp yarns woven in the warp direction interweaving the weft yarns (20, 30) in a plain weave pattern or a twill weave pattern to form a fabric; the fabric having an apparent opening size of at least 30 as measured in accordance with ASTM International Standard D4751 and a water flow rate of at least 51 l/sec/m 2 (75 gpm/ft 2) as measured in accordance with ASTM International Standard D4491; the fabric having a repeating pattern of at least one yarn disposed in a first shed and at least one yarn in a second shed, each of the first shed and second shed being a separation between upper and lower warp yarns through which the weft yarns (20, 30) are woven, the first shed comprising a weft yarn that is a monofilament yarn, the second shed comprising a weft yarn that is a fibrillated tape, and the fabric having a tensile strength of at least 17.5 kN/m (100 lb/in) at 2% strain in both the warp and weft directions as respectively measured in accordance with ASTM International Standard D4595.