mhurhangee/ep-ind-claims huggingface dataset:
A coupling device for a cutting tool, with a first member (10; 110; 210) and a second member (30; 130; 230) being able to be coupled together, said coupling device comprising: said first member (10; 110; 210), with two protruding portions provided on the first member; said second member (30; 130; 230), with a through hole formed to pass through the second member and two reception holes provided in the second member, each reception hole being formed to connect to the through hole and to receive a protruding portion; and a fixing member including a first pressing portion and a second pressing portion, wherein the fixing member is configured to, when being disposed in the through hole, be able to move the first pressing portion and the second pressing portion so as to change a distance therebetween, when a force is applied to one end portion of the fixing member by rotation of said one end portion of the fixing member, and wherein the first pressing portion is formed to be able to exert a fixing force on one of the two protruding portions received in one of the two reception holes; characterized in that the second pressing portion is formed to be able to exert a fixing force on the other of the two protruding portions received in the other of the two reception holes. said first member (10; 110; 210), with two protruding portions provided on the first member; said second member (30; 130; 230), with a through hole formed to pass through the second member and two reception holes provided in the second member, each reception hole being formed to connect to the through hole and to receive a protruding portion; and a fixing member including a first pressing portion and a second pressing portion, wherein the fixing member is configured to, when being disposed in the through hole, be able to move the first pressing portion and the second pressing portion so as to change a distance therebetween, when a force is applied to one end portion of the fixing member by rotation of said one end portion of the fixing member, and wherein the first pressing portion is formed to be able to exert a fixing force on one of the two protruding portions received in one of the two reception holes; characterized in that the second pressing portion is formed to be able to exert a fixing force on the other of the two protruding portions received in the other of the two reception holes.
A method for video decoding, comprising: deriving, from a bitstream and for a first coding block, a quantization parameter and a quantized level; deriving a scale value by looking up a scale level table based on the quantization parameter; and in accordance with a determination that the first coding block is coded in a transform skip mode, obtaining a residual sample for a sample in the first coding block based on the quantized level, the scale value and a plurality of bit-shifts by applying a first de-quantization operation; wherein the first de-quantization operation is also applied to obtain a reconstructed sample for an escape sample in a second coding block coded in a palette mode; and wherein a block size of the first coding block or the second coding block is not used for determining parameters of the first de-quantization operation, wherein the first de-quantization operation is as follows: pSample = pLevel × decScale QP % 6 × 2 QP / 6 2 6 wherein pLevel is a quantized level, pSample corresponds to a reconstructed value of a residual sample in the transform skip mode or an escape sample in the palette mode, decScale [] is a scale value, QP is a quantization parameter, % denotes a modulo operation, QP%6 represents an operation of QP modulo 6. deriving, from a bitstream and for a first coding block, a quantization parameter and a quantized level; deriving a scale value by looking up a scale level table based on the quantization parameter; and in accordance with a determination that the first coding block is coded in a transform skip mode, obtaining a residual sample for a sample in the first coding block based on the quantized level, the scale value and a plurality of bit-shifts by applying a first de-quantization operation; wherein the first de-quantization operation is also applied to obtain a reconstructed sample for an escape sample in a second coding block coded in a palette mode; and wherein a block size of the first coding block or the second coding block is not used for determining parameters of the first de-quantization operation, wherein the first de-quantization operation is as follows: pSample = pLevel × decScale QP % 6 × 2 QP / 6 2 6
Polyurethane foam obtainable from the reaction of a mixture comprising: A) an isocyanate-reactive compound; B) a blowing agent selected from the group comprising linear, branched or cyclic C 1 -C 6 hydrocarbons, linear, branched or cyclic C 1 -C 6 (hydro) fluorocarbons, N 2, O 2, argon and/or CO 2, wherein said blowing agent B) is in the supercritical or near-critical state; and C) a polyisocyanate; characterized in that said isocyanate-active compound A) comprises a hydrophobic portion and a hydrophilic portion and has an average hydroxyl functionality of more than 1, wherein the hydrophobic portion comprises a saturated or unsaturated hydrocarbonaceous chain having 6 or more carbon atoms, and wherein the hydrophilic portion comprises alkylene oxide units and/or ester units. A) an isocyanate-reactive compound; B) a blowing agent selected from the group comprising linear, branched or cyclic C 1 -C 6 hydrocarbons, linear, branched or cyclic C 1 -C 6 (hydro) fluorocarbons, N 2, O 2, argon and/or CO 2, wherein said blowing agent B) is in the supercritical or near-critical state; and C) a polyisocyanate;
A control circuit for a light emitting diode lighting system for achieving a dim-to-warm effect between a minimum brightness-maximum dimming level, and a maximum brightness-minimum dimming level, the control circuit comprising: a clamp circuit coupleable to a set of warm correlated-color-temperature - abbreviated 'CCT' hereafter - LEDs; a switch coupleable to a set of cool CCT LEDs; an LED controller configured to control the clamp circuit to clamp current through the set of warm CCT LEDs to a clamp current level based on an input current; and characterised by a feedback circuit coupled to the clamp circuit and the switch, the feedback circuit being configured to cause the clamp circuit to divert current from the set of warm CCT LEDs to the set of cool CCT LEDs in response to the input current exceeding a second threshold level. a clamp circuit coupleable to a set of warm correlated-color-temperature - abbreviated 'CCT' hereafter - LEDs; a switch coupleable to a set of cool CCT LEDs; an LED controller configured to control the clamp circuit to clamp current through the set of warm CCT LEDs to a clamp current level based on an input current; and characterised by a feedback circuit coupled to the clamp circuit and the switch, the feedback circuit being configured to cause the clamp circuit to divert current from the set of warm CCT LEDs to the set of cool CCT LEDs in response to the input current exceeding a second threshold level.
A catheter, comprising: an insertion tube having a distal end; and a resilient distal section fixed to the distal end of the insertion tube, the distal section having an outer surface and an inner irrigating lumen and comprises a plurality of ring electrodes that bulge above the outer surface and are circumferentially arranged around the entire circumference of the outer surface, the ring electrodes having a plurality of perforations formed therethrough, wherein each perforation is in fluid communication with a cavity circumferentially surrounding the outer surface, the outer surface of the distal section having at least one breach hole therein positioned beneath each ring electrode and in fluid communication with the irrigating lumen, the cavity and the perforations of each ring electrode for dispensing irrigating fluid from the resilient distal section through each ring electrode. an insertion tube having a distal end; and a resilient distal section fixed to the distal end of the insertion tube, the distal section having an outer surface and an inner irrigating lumen and comprises a plurality of ring electrodes that bulge above the outer surface and are circumferentially arranged around the entire circumference of the outer surface, the ring electrodes having a plurality of perforations formed therethrough, wherein each perforation is in fluid communication with a cavity circumferentially surrounding the outer surface, the outer surface of the distal section having at least one breach hole therein positioned beneath each ring electrode and in fluid communication with the irrigating lumen, the cavity and the perforations of each ring electrode for dispensing irrigating fluid from the resilient distal section through each ring electrode.
A mold comprising: a first mold carrier plate formed of a first material, the first mold carrier plate including a first recessed area or aperture defined therein; a first mold insert, made from nylon, aluminium filled nylon, or glass filled nylon, formed using a rapid prototyping technique, wherein the first mold insert is releasably engaged in the first recessed area or aperture of the first mold carrier plate; a second mold carrier plate including an opening defined therein; a second mold insert, made from nylon, aluminium filled nylon, or glass filled nylon, formed using a rapid prototyping technique, wherein the second mold insert is releasably engaged in the opening of the second mold carrier plate and a bottom plate, wherein the second mold carrier plate is located between the first mold carrier plate and the bottom plate, and wherein the first and second mold inserts (112, 150) define a portion of a first mold cavity of the mold; and wherein the bottom plate is configured to contact a portion of an article formed in the first mold cavity; wherein the bottom plate is engaged with the second mold carrier plate. a first mold carrier plate formed of a first material, the first mold carrier plate including a first recessed area or aperture defined therein; a first mold insert, made from nylon, aluminium filled nylon, or glass filled nylon, formed using a rapid prototyping technique, wherein the first mold insert is releasably engaged in the first recessed area or aperture of the first mold carrier plate; a second mold carrier plate including an opening defined therein; a second mold insert, made from nylon, aluminium filled nylon, or glass filled nylon, formed using a rapid prototyping technique, wherein the second mold insert is releasably engaged in the opening of the second mold carrier plate and a bottom plate, wherein the second mold carrier plate is located between the first mold carrier plate and the bottom plate, and wherein the first and second mold inserts (112, 150) define a portion of a first mold cavity of the mold; and wherein the bottom plate is configured to contact a portion of an article formed in the first mold cavity; wherein the bottom plate is engaged with the second mold carrier plate.
An apparatus of a wireless communication network, the apparatus comprising means for performing: detecting a beam failure on one transmission/reception point, TRP, the apparatus being configured to communicate with a plurality of TRPs of a cell, wherein each TRP of the plurality of TRPs is associated with a CORESETPoolIndex value, and each CORESETPoolIndex value is associated with at least one beam failure detection reference signal, BFD-RS, set, and wherein a beam failure on a TRP is determined based on a failure condition of the at least one BFD-RS set associated to the TRP; based on the detecting, encoding a beam failure indication data to a beam failure recovery, BFR, media access control, MAC, control element, CE, wherein the beam failure indication data indicates the beam failure on one TRP of the plurality of TRPs, wherein the beam failure indication data comprises an information element indicating that the beam failure is partial in which beam failure is detected on one TRP of the plurality of TRPs and another information element indicating an index value of a TRP associated with the partial beam failure; and transmitting the BFR MAC CE to a network element of the wireless communication network. detecting a beam failure on one transmission/reception point, TRP, the apparatus being configured to communicate with a plurality of TRPs of a cell, wherein each TRP of the plurality of TRPs is associated with a CORESETPoolIndex value, and each CORESETPoolIndex value is associated with at least one beam failure detection reference signal, BFD-RS, set, and wherein a beam failure on a TRP is determined based on a failure condition of the at least one BFD-RS set associated to the TRP; based on the detecting, encoding a beam failure indication data to a beam failure recovery, BFR, media access control, MAC, control element, CE, wherein the beam failure indication data indicates the beam failure on one TRP of the plurality of TRPs, wherein the beam failure indication data comprises an information element indicating that the beam failure is partial in which beam failure is detected on one TRP of the plurality of TRPs and another information element indicating an index value of a TRP associated with the partial beam failure; and transmitting the BFR MAC CE to a network element of the wireless communication network.
A medical fluid container comprising a container connection piece forming an inner channel, via which an internal container space is accessible from the outside and which has an external thread on a longitudinal piece section, and a sealing cap which is screwed onto the longitudinal piece portion with the aid of an internal thread in order to close the fluid container, and has a sealing insert with a sealing plug which projects into the inner channel of the container connection piece in such a way that a circumferential surface of the sealing plug is in sealing contact with an inner side of the inner channel, wherein a single or several axially spaced circumferential sealing lips project radially outwards from the circumferential surface of the sealing plug, characterized in that the inner side of the inner channel has an accommodation for the sealing lip of the sealing plug. a container connection piece forming an inner channel, via which an internal container space is accessible from the outside and which has an external thread on a longitudinal piece section, and a sealing cap which is screwed onto the longitudinal piece portion with the aid of an internal thread in order to close the fluid container, and has a sealing insert with a sealing plug which projects into the inner channel of the container connection piece in such a way that a circumferential surface of the sealing plug is in sealing contact with an inner side of the inner channel, wherein a single or several axially spaced circumferential sealing lips project radially outwards from the circumferential surface of the sealing plug, characterized in that the inner side of the inner channel has an accommodation for the sealing lip of the sealing plug.
A fluid passage structure comprising: a casing; a first flow passage disposed in the casing; a second flow passage disposed in the casing and crossing with the first flow passage; and a crossing portion through which the first flow passage and the second flow passage cross with each other, the crossing portion including: a pair of arc-shape recessed portions; characterised in that the arc-shaped recessed portions are formed to be a pair of arc-shape lines arranged in line symmetrical positions with respect to an axis of the second flow passage in a view along an axis of the first flow passage, each of the pair of arc-shape lines being a part of a cross sectional contour of the first flow passage; and in that the crossing portion further includes an inside projecting portion which is formed between the pair of arc-shape recessed portions to project toward an inside of the first flow passage by connecting each end of the pair of arc-shape lines of the pair of arc-shape recessed portions, each end being closer to the axis of the second flow passage than the other end of a corresponding one of the pair of arc-shape lines in the view along the axis of the first flow passage. a casing; a first flow passage disposed in the casing; a second flow passage disposed in the casing and crossing with the first flow passage; and a crossing portion through which the first flow passage and the second flow passage cross with each other, the crossing portion including: a pair of arc-shape recessed portions; a pair of arc-shape recessed portions; characterised in that the arc-shaped recessed portions are formed to be a pair of arc-shape lines arranged in line symmetrical positions with respect to an axis of the second flow passage in a view along an axis of the first flow passage, each of the pair of arc-shape lines being a part of a cross sectional contour of the first flow passage; and in that the crossing portion further includes an inside projecting portion which is formed between the pair of arc-shape recessed portions to project toward an inside of the first flow passage by connecting each end of the pair of arc-shape lines of the pair of arc-shape recessed portions, each end being closer to the axis of the second flow passage than the other end of a corresponding one of the pair of arc-shape lines in the view along the axis of the first flow passage.
A comb copolymer comprising: A) one or more repeating units derived from olefinically unsaturated cationic or cationogenic comonomers; and B) one or more repeating units having the formula wherein Y is a moiety forming part of the copolymer backbone, Z is a moiety that exhibits association with other Z moieties or with other moieties within a formulation in which the copolymer will be employed, and b is a bond or moiety that links the Z moiety to the Y moiety, wherein the Z moiety is alkyl, aryl, aralkyl, fluoroalkyl, silicone or silane, and wherein the weight ratio of associative moieties Z to ionic and ionogenic monomers is between 0.1 and 5.5, or wherein the weight ratio of associative moieties Z to ionic monomers is between 0.15 and 6.5. A) one or more repeating units derived from olefinically unsaturated cationic or cationogenic comonomers; and B) one or more repeating units having the formula wherein Y is a moiety forming part of the copolymer backbone, Z is a moiety that exhibits association with other Z moieties or with other moieties within a formulation in which the copolymer will be employed, and b is a bond or moiety that links the Z moiety to the Y moiety, wherein the Z moiety is alkyl, aryl, aralkyl, fluoroalkyl, silicone or silane, and wherein the weight ratio of associative moieties Z to ionic and ionogenic monomers is between 0.1 and 5.5, or wherein the weight ratio of associative moieties Z to ionic monomers is between 0.15 and 6.5.
A photoelectric conversion module including: a circuit board having conductive trace (160, 161, 162, 163) formed thereon, at least one optical element (140, 150) and an optical bench, characterised in that: wherein said at least one optical element (140, 150) is flip-chip mounted on said circuit board for coupling to said conductive trace (160, 161, 162, 163) on said circuit board; and wherein said optical bench includes a first concave portion, a first lens array, a mirror and a second lens array; wherein a size of said circuit board is less than or equal to that of said first concave portion of said optical bench, and said circuit board is configured within said first concave portion of said optical bench. a circuit board having conductive trace (160, 161, 162, 163) formed thereon, at least one optical element (140, 150) and an optical bench, characterised in that: wherein said at least one optical element (140, 150) is flip-chip mounted on said circuit board for coupling to said conductive trace (160, 161, 162, 163) on said circuit board; and wherein said optical bench includes a first concave portion, a first lens array, a mirror and a second lens array; wherein a size of said circuit board is less than or equal to that of said first concave portion of said optical bench, and said circuit board is configured within said first concave portion of said optical bench. wherein said at least one optical element (140, 150) is flip-chip mounted on said circuit board for coupling to said conductive trace (160, 161, 162, 163) on said circuit board; and wherein said optical bench includes a first concave portion, a first lens array, a mirror and a second lens array; wherein a size of said circuit board is less than or equal to that of said first concave portion of said optical bench, and said circuit board is configured within said first concave portion of said optical bench.
A screw compressor for a utility vehicle having at least one housing and at least one air-oil separator holder arranged on the housing, there being provided a relief valve that is arranged in the air-oil separator holder and by means of which the pressure inside the screw compressor can be relieved, characterised in that air-oil separator holder is manufactured from a non-corrosive material, the relief valve being connected to the air inlet of the screw compressor and it being possible to connect the relief valve with the atmosphere via the air inlet, the housing consisting of a material other than that of the air-oil separator holder.
A method of determining fatigue load of at least one operative wind turbine based on an acceleration measurement, comprising the steps of: - providing a transfer function that associates an obtained at least one measured acceleration value of a first sensor which comprises an accelerometer to an obtained at least one measured strain value of a second sensor which comprises a strain gauge the at least one measured acceleration value of the first sensor and the at least one measured strain value of the second sensor being obtained by use of a reference wind turbine at which the first sensor and the second sensor are located - obtaining at least one measured acceleration value of a third sensor which comprises an accelerometer, wherein the third sensor is located at the at least one operative wind turbine, and wherein the third sensor corresponds in type and position to the first sensor at the reference wind turbine; - Calculating at least one transfer function value corresponding to the obtained at least one measurement value of the third sensor by use of the provided transfer function where the transfer function value is a value representing strain; - Calculating the fatigue load of the at least one operative wind turbine based on the calculated transfer function value representing strain. - providing a transfer function that associates an obtained at least one measured acceleration value of a first sensor which comprises an accelerometer to an obtained at least one measured strain value of a second sensor which comprises a strain gauge the at least one measured acceleration value of the first sensor and the at least one measured strain value of the second sensor being obtained by use of a reference wind turbine at which the first sensor and the second sensor are located - obtaining at least one measured acceleration value of a third sensor which comprises an accelerometer, wherein the third sensor is located at the at least one operative wind turbine, and wherein the third sensor corresponds in type and position to the first sensor at the reference wind turbine; - Calculating at least one transfer function value corresponding to the obtained at least one measurement value of the third sensor by use of the provided transfer function where the transfer function value is a value representing strain; - Calculating the fatigue load of the at least one operative wind turbine based on the calculated transfer function value representing strain.