mhurhangee/ep-ind-claims huggingface dataset:
A device for antimicrobial treatment in the region of percutaneous accesses when performing interventions, in particular minimally invasive interventions, in bodies, having a base body in the form of a shaft for partial insertion into a body, the device being a device for endoscopy or a trocar, wherein the device further comprises at least one plasma source arranged in at least one section of the basic body, wherein the plasma source has at least one high-voltage electrode which is at least partially and in particular completely covered with a dielectric and which is configured to generate a plasma when an electrical voltage is applied and in cooperation with a second electrode by means of a dielectric barrier discharge, characterized in that in at least one section of the base body the high-voltage electrode and the dielectric are arranged in layers around a cross-section of the base body, wherein a high-voltage-resistant insulating layer is arranged between the base body and the high-voltage electrode, wherein the dielectric projects beyond the high-voltage electrode on both sides in the axial direction, wherein the dielectric contacts the insulating layer in these portions and lies against the base body beyond these portions.
A flux composition comprising a component A that is a powder of an alkali metal zinc fluoroaluminate represented by a general formula, and a component C that is one type of metal powder or two or more types of metal powders selected from a powder of an aluminum alloy that comprises one type of metal element or two or more types of metal elements among Si, Cu, and Zn, an Al powder, a Si powder, a Cu powder, and a Zn powder, the content of the component A in the flux composition being 50 mass% or more, M w Zn x Al y F z wherein M is K or Cs, and w, x, y, and z are a positive integer, the greatest common divisor of w, x, y, and z being 1.
Tools for manufacturing a product made of metal by hot top casting, including a mould comprising: - a hot top by which the metal in the liquid state is poured, - an ingot mould in which the solidification of the metal occurs and equipped with a support with integrated cooling, - a mobile bottom moving in a main direction, parallel to the main axis of the ingot mould, - a transition ring interposed between the hot top and the ingot mould, the tools being characterised in that they comprise a clamping ring capable of transmitting a clamping stress to the transition ring facing towards the ingot mould in the main direction, a retaining mechanism providing a positive blocking of the clamping ring and capable of exerting a retaining stress on the clamping ring directed towards the transition ring in the main direction, and an axial relief mechanism configured so as to vary between an inactive state in which the retaining mechanism exerts said retaining stress on the clamping ring so that the clamping ring exerts said clamping stress on the transition ring and an active state in which the axial relief mechanism opposes the action applied by the retaining mechanism onto the clamping ring in the inactive state in such a way as to free the clamping ring in the axial direction and allow a removal of the clamping ring from the mould such that the transition ring can be removed in the main direction on the side opposite to the ingot mould. - a hot top by which the metal in the liquid state is poured, - an ingot mould in which the solidification of the metal occurs and equipped with a support with integrated cooling, - a mobile bottom moving in a main direction, parallel to the main axis of the ingot mould, - a transition ring interposed between the hot top and the ingot mould,
A method of controlling the auto-activation of factor VII, or an analogue, or derivative thereof, comprising the steps of: (a) measuring the initial concentration of the factor VII/VIIa, or analogue or derivative thereof; (b) measuring the initial proportion of activated factor VII, or analogue or derivative thereof; (c) calculating the activation reaction time of the factor VII, or analogue or derivative thereof, by correlation of the values measured in each of steps (a) and (b) with a value of required proportion of activated factor VII, or analogue or derivative thereof, the reaction time, t, being calculated in accordance with formula: t = - ln ⁢ akt ⁢ 0 ⋅ akt - 1 akt ⋅ akt ⁢ 0 - 1 k T ⋅ xb ⋅ F ⁢ 0 wherein " akt " refers to the required proportion of cleaved factor VII, or analogue or derivative thereof, " akt 0" refers to the initial proportion of cleaved factor VII, or analogue or derivative thereof, measured in step (b), " F 0" refers to the initial concentration of the factor VII, or analogue or derivative thereof, (in g/l) measured in step (a), k refers to the reaction constant for the given reaction (in L/g/min) as a function of temperature, T, and xb refers to the molar fraction, calculated according to the equation in formula, xb = 10 pH - 7.61 1 + 10 pH - 7.61 wherein pH refers to the selected pH of the reaction; (d) performing, at a pH of 6.0 to 8.0, the factor VII activation reaction, for the time calculated in step (c); and (e) terminating the reaction after the reaction time calculated in step (c) termination comprising lowering the pH to a value below about 6.0, such as between 5.5 and 6.0. (a) measuring the initial concentration of the factor VII/VIIa, or analogue or derivative thereof; (b) measuring the initial proportion of activated factor VII, or analogue or derivative thereof; (c) calculating the activation reaction time of the factor VII, or analogue or derivative thereof, by correlation of the values measured in each of steps (a) and (b) with a value of required proportion of activated factor VII, or analogue or derivative thereof, the reaction time, t, being calculated in accordance with formula: t = - ln ⁢ akt ⁢ 0 ⋅ akt - 1 akt ⋅ akt ⁢ 0 - 1 k T ⋅ xb ⋅ F ⁢ 0 wherein " akt " refers to the required proportion of cleaved factor VII, or analogue or derivative thereof, " akt 0" refers to the initial proportion of cleaved factor VII, or analogue or derivative thereof, measured in step (b), " F 0" refers to the initial concentration of the factor VII, or analogue or derivative thereof, (in g/l) measured in step (a), k refers to the reaction constant for the given reaction (in L/g/min) as a function of temperature, T, and xb refers to the molar fraction, calculated according to the equation in formula, xb = 10 pH - 7.61 1 + 10 pH - 7.61 wherein pH refers to the selected pH of the reaction; (d) performing, at a pH of 6.0 to 8.0, the factor VII activation reaction, for the time calculated in step (c); and (e) terminating the reaction after the reaction time calculated in step (c) termination comprising lowering the pH to a value below about 6.0, such as between 5.5 and 6.0.
A refrigeration cycle apparatus comprising a refrigerant circuit in which a compressor, a radiator, a supercooling heat exchanger, main expansion means and an evaporator are annularly connected to one another in this order, a bypass passage which branches off from the refrigerant circuit between the radiator and the main expansion means, and which is connected to the refrigerant circuit between the evaporator and the compressor or is connected to a compression chamber of the compressor through the supercooling heat exchanger, bypass expansion means provided in the bypass passage at a location upstream of the supercooling heat exchanger, a first temperature sensor which detects a temperature of a refrigerant flowing out from the supercooling heat exchanger, first saturation temperature detecting means which detects a saturation temperature of a refrigerant sucked into the compressor, a second temperature sensor which detects a temperature of a refrigerant flowing out from the radiator, and second saturation temperature detecting means which detects a saturation temperature of refrigerant in the radiator, characterized in that a control device operates the bypass expansion means such that a temperature detected by the first temperature sensor comes close to a temperature detected by the first saturation temperature detecting means when the temperature detected by the first temperature sensor is higher than the temperature detected by the first saturation temperature detecting means, and the control device operates the bypass expansion means such that a temperature detected by the second temperature sensor becomes lower than a temperature detected by the second saturation temperature detecting means by a predetermined temperature when the temperature detected by the first temperature sensor is substantially equal to the temperature detected by the first saturation temperature detecting means.
Method for spinning fancy yarns comprising the steps of: a) injecting continuously a bundle of base fibres to a drafting train of said bundle of base fibres, b) while said bundle of base fibres is continuously injected, injecting intermittently a bundle of effect fibres to said same drafting train to add intermittently said bundle of effect fibres to said bundle of base fibres, the intermittent injection of effect fibres of step b) including the steps of: bi) advancing a stretch of said bundle of effect fibres to the drafting train of said bundle of base fibres, and bii) then, moving backwardly said stretch a preset length, said backward movement permitting the forced cutting or separation of a fragment of the bundle of effect fibres to be added to the bundle of base fibres in said drafting train, characterised in that after the injection of step b) the following step is carried out: c) acceleration of the injection speed of the bundle of base fibres for producing a slubby in said bundle of base fibres, said acceleration being done at the moment when said fragment of the bundle of effect fibres is added to the base fibres, the injection place of said fragment matching with said slubby. a) injecting continuously a bundle of base fibres to a drafting train of said bundle of base fibres, b) while said bundle of base fibres is continuously injected, injecting intermittently a bundle of effect fibres to said same drafting train to add intermittently said bundle of effect fibres to said bundle of base fibres, the intermittent injection of effect fibres of step b) including the steps of: bi) advancing a stretch of said bundle of effect fibres to the drafting train of said bundle of base fibres, and bii) then, moving backwardly said stretch a preset length, said backward movement permitting the forced cutting or separation of a fragment of the bundle of effect fibres to be added to the bundle of base fibres in said drafting train, characterised in that after the injection of step b) the following step is carried out: bi) advancing a stretch of said bundle of effect fibres to the drafting train of said bundle of base fibres, and bii) then, moving backwardly said stretch a preset length, said backward movement permitting the forced cutting or separation of a fragment of the bundle of effect fibres to be added to the bundle of base fibres in said drafting train, c) acceleration of the injection speed of the bundle of base fibres for producing a slubby in said bundle of base fibres, said acceleration being done at the moment when said fragment of the bundle of effect fibres is added to the base fibres, the injection place of said fragment matching with said slubby.
A multicast data packet processing method, wherein the method comprises: establishing, by a first forwarding device, a segment routing header, SRH,-based tunnel with a third forwarding device supporting bit index explicit replication, BIER, protocol, wherein the SRH-based tunnel passes through a second forwarding device that does not support BIER protocol; generating, by the first forwarding device, a first multicast data packet based on a multicast data packet from a multicast source and the SRH-based tunnel, wherein the first multicast data packet comprises a first packet header, a second packet header, and the multicast data packet from the multicast source, the first packet header comprises an SRH comprising a multicast address of the multicast data packet, an address of the second forwarding device and an address of the third forwarding device, and a destination address comprised in the second packet header is the address of the second forwarding device; and sending, by the first forwarding device, the first multicast data packet to the second forwarding device through the SRH-based tunnel based on the second packet header. establishing, by a first forwarding device, a segment routing header, SRH,-based tunnel with a third forwarding device supporting bit index explicit replication, BIER, protocol, wherein the SRH-based tunnel passes through a second forwarding device that does not support BIER protocol; generating, by the first forwarding device, a first multicast data packet based on a multicast data packet from a multicast source and the SRH-based tunnel, wherein the first multicast data packet comprises a first packet header, a second packet header, and the multicast data packet from the multicast source, the first packet header comprises an SRH comprising a multicast address of the multicast data packet, an address of the second forwarding device and an address of the third forwarding device, and a destination address comprised in the second packet header is the address of the second forwarding device; and sending, by the first forwarding device, the first multicast data packet to the second forwarding device through the SRH-based tunnel based on the second packet header.
A construction machine with a system for controlling an access authorisation for the construction machine comprising: - a plurality of keys (4, 8) respectively adapted for access to the construction machine and to at least one further construction machine with a uniform mechanical coding so that this uniform mechanical coding can be used to open at least two different construction machines, - wherein each of the keys (4,8), in addition to the mechanical coding, comprises a unique identification code which can be read out via a built-in transponder, - a master key assigned exactly to respectively one construction machine such that the readable identification code of the master key is firmly assigned to exactly one construction machine, - wherein a unique identification code of a key not assigned to the construction machine can be assigned to the construction machine through teaching with the aid of the master key, and - wherein the construction machine comprises an immobiliser which can be released with the aid of an assigned identification code of the key. - a plurality of keys (4, 8) respectively adapted for access to the construction machine and to at least one further construction machine with a uniform mechanical coding so that this uniform mechanical coding can be used to open at least two different construction machines, - wherein each of the keys (4,8), in addition to the mechanical coding, comprises a unique identification code which can be read out via a built-in transponder, - a master key assigned exactly to respectively one construction machine such that the readable identification code of the master key is firmly assigned to exactly one construction machine, - wherein a unique identification code of a key not assigned to the construction machine can be assigned to the construction machine through teaching with the aid of the master key, and - wherein the construction machine comprises an immobiliser which can be released with the aid of an assigned identification code of the key.
Method for manufacturing products obtained by injection of an expanded material, such as polystyrene balls, into a manufacturing mould followed by an injection of steam, these operations being implemented in a curing unit (Uc) comprising an input and an output for said manufacturing mould, the method using a main conveyor served by at least one station (P1, P2) dedicated to the preparation of manufacturing moulds (Mf) so as to be able to transfer, track, the prepared moulds to the input of the curing unit (Uc), and in which there is interposed a station dedicated to the introduction of the moulds into the curing unit (Uc) and, if necessary, to the stripping of the moulds, between the stations (P1, P2) dedicated to the preparation of manufacturing moulds (Mf) and the input of the curing unit (Uc).
Method for controlling a road milling machine comprising a milling drum and a rear blade when there is an obstacle located in the ground to be milled, comprising the following steps: a) milling the ground at a predetermined milling depth along a working direction (a); b) advancing the road milling machine in the working direction (a) towards the obstacle located in the ground; c) raising (23, 23') the milling drum and the rear blade out of the ground in the working direction (a) in front of the obstacle; d) moving over the obstacle in such a way that the milling drum remains out of contact with the obstacle; and e) lowering the milling drum and the rear blade to the predetermined milling depth in the working direction (a) behind the obstacle and continuing the milling of the ground, characterized in that the road milling machine is controlled in such a way that in step c) the raising of the milling drum is carried out before the raising of the rear blade out of the ground, wherein the road milling machine continues to move in the working direction (a) between the raising of the milling drum and the raising of the rear blade. a) milling the ground at a predetermined milling depth along a working direction (a); b) advancing the road milling machine in the working direction (a) towards the obstacle located in the ground; c) raising (23, 23') the milling drum and the rear blade out of the ground in the working direction (a) in front of the obstacle; d) moving over the obstacle in such a way that the milling drum remains out of contact with the obstacle; and e) lowering the milling drum and the rear blade to the predetermined milling depth in the working direction (a) behind the obstacle and continuing the milling of the ground,
A motorcycle tire comprising a tread part, the tread part comprising a center part having a tire equator, and a pair of shoulder parts having tread grounding ends; wherein the motorcycle tire is characterized in that a rubber composition constituting the center part comprises a filler, the filler comprising silica, and a ratio of silica in the filler is greater than 50% by mass, a rubber composition constituting the shoulder parts comprises a filler, the filler comprising carbon black, and a ratio of carbon black in the filler is greater than 50% by mass, and when a loss tangent at 70°C of the rubber composition constituting the center part is defined as 70°C tan δ(c), a complex elastic modulus at 0°C of the rubber composition constituting the center part is defined as 0°CE*(c), a loss tangent at 70°C of the rubber composition constituting the shoulder parts is defined as 70°C tan δ(s), the "70°C tan δ" is a loss tangent measured in an extension mode under a temperature of 70°C, a frequency of 10 Hz, an initial strain of 10%, a dynamic strain of 1%, and a complex elastic modulus at 0°C of the rubber composition constituting the shoulder parts is defined as 0°CE*(s), the "0°C E*" is a complex elastic modulus measured in an extension mode under a temperature of 0°C, a frequency of 10 Hz, an initial strain of 5%, a dynamic strain of 1% and 70°C tan δ(c) and 70°C tan δ(s) satisfy the following inequality 1.30 < 70 ° C tan δ s / 70 ° C tan δ c and 0°CE*(c) and 0°CE*(s) satisfy the following inequality 0 ° CE * s / 0 ° CE * c < 1.50 the tread part comprising a center part having a tire equator, and a pair of shoulder parts having tread grounding ends; wherein the motorcycle tire is characterized in that a rubber composition constituting the center part comprises a filler, the filler comprising silica, and a ratio of silica in the filler is greater than 50% by mass, a rubber composition constituting the shoulder parts comprises a filler, the filler comprising carbon black, and a ratio of carbon black in the filler is greater than 50% by mass, and when a loss tangent at 70°C of the rubber composition constituting the center part is defined as 70°C tan δ(c), a complex elastic modulus at 0°C of the rubber composition constituting the center part is defined as 0°CE*(c), a loss tangent at 70°C of the rubber composition constituting the shoulder parts is defined as 70°C tan δ(s), the "70°C tan δ" is a loss tangent measured in an extension mode under a temperature of 70°C, a frequency of 10 Hz, an initial strain of 10%, a dynamic strain of 1%, and a complex elastic modulus at 0°C of the rubber composition constituting the shoulder parts is defined as 0°CE*(s), the "0°C E*" is a complex elastic modulus measured in an extension mode under a temperature of 0°C, a frequency of 10 Hz, an initial strain of 5%, a dynamic strain of 1% and 70°C tan δ(c) and 70°C tan δ(s) satisfy the following inequality 1.30 < 70 ° C tan δ s / 70 ° C tan δ c and 0°CE*(c) and 0°CE*(s) satisfy the following inequality
A fabric softener composition comprising: a) a fabric softener active of a diester quaternary ammonium compound of formula: {R 4-m - N+ - [(CH 2) n - Y - R 5] m} A- wherein each R is independently selected from the group consisting of hydrogen, a short chain C 1 -C 6, poly(C 2 -C 3 alkoxy), benzyl, and mixtures thereof; m is 2; each n is independently from 1 to 4; each Y is independently -O- C- or -C -O-; the sum of carbons in each R 5 is C 11 -C 21, with each R 5 independently being a hydrocarbyl or substituted hydrocarbyl group; and A- is a softener-compatible anion; b) from 0.4% to 0.9%, by weight of the fabric softener composition, of an amphiphile compound of formula: wherein R 1 is C 6 -C 22 alkyl, branched or unbranched; R 2 is hydrogen, methyl, ethyl, or - (CH 2 CH 2 O) y, wherein y is from 1 to 20; R 3 is hydrogen, methyl, or ethyl; x is from 1 to 20; and Z is an anionic counterion; c) a perfume oil; d) a polyol at a level of from 0.1 % to 5% by weight of the fabric softener composition. a) a fabric softener active of a diester quaternary ammonium compound of formula: {R 4-m - N+ - [(CH 2) n - Y - R 5] m} A- wherein each R is independently selected from the group consisting of hydrogen, a short chain C 1 -C 6, poly(C 2 -C 3 alkoxy), benzyl, and mixtures thereof; m is 2; each n is independently from 1 to 4; each Y is independently -O- C- or -C -O-; the sum of carbons in each R 5 is C 11 -C 21, with each R 5 independently being a hydrocarbyl or substituted hydrocarbyl group; and A- is a softener-compatible anion; b) from 0.4% to 0.9%, by weight of the fabric softener composition, of an amphiphile compound of formula: wherein R 1 is C 6 -C 22 alkyl, branched or unbranched; R 2 is hydrogen, methyl, ethyl, or - (CH 2 CH 2 O) y, wherein y is from 1 to 20; R 3 is hydrogen, methyl, or ethyl; x is from 1 to 20; and Z is an anionic counterion; c) a perfume oil; d) a polyol at a level of from 0.1 % to 5% by weight of the fabric softener composition.