mhurhangee/patent-ind-claim-en huggingface dataset:
A device for solidifying a coating layer hot deposited on a wire , said device extending along a longitudinal direction (L) defining the path of passage of said wire , the device comprising [a] a cooling liquid injection chamber with a cooling liquid inlet and a wire inlet , said injection chamber being cylindrical, [b] a cooling chamber with a cooling liquid outlet and a wire outlet , [c] a partition arranged between said injection and cooling chambers , comprising a wire passage communicating said injection chamber and said cooling chamber with one another, [d] a conduit for separating said wire , extending between said wire inlet and said wire passage , characterized in that [e] said partition comprises a plurality of channels fluidically connecting said injection chamber with said cooling chamber , said plurality of channels leading into the center of said wire passage in an eccentric manner such that each channel of said plurality of channels seen on a plane (P) perpendicular to said longitudinal direction (L) has a first side wall and a second side wall , said first and second side walls being configured such that at least one of them is eccentric to said longitudinal axis (L), and the other one is at least radial, the prolongation of said first and second side walls being on one and the same side of said longitudinal axis (L) and [f] said plurality of channels being inclined forming an angle (α) with respect to said longitudinal direction (L) which is comprised between 10° and 40° for aiming a jet of cooling liquid on said wire in the direction from said injection chamber towards said cooling chamber . [a] a cooling liquid injection chamber with a cooling liquid inlet and a wire inlet , said injection chamber being cylindrical, [b] a cooling chamber with a cooling liquid outlet and a wire outlet , [c] a partition arranged between said injection and cooling chambers , comprising a wire passage communicating said injection chamber and said cooling chamber with one another, [d] a conduit for separating said wire , extending between said wire inlet and said wire passage , characterized in that [e] said partition comprises a plurality of channels fluidically connecting said injection chamber with said cooling chamber , said plurality of channels leading into the center of said wire passage in an eccentric manner such that each channel of said plurality of channels seen on a plane (P) perpendicular to said longitudinal direction (L) has a first side wall and a second side wall , said first and second side walls being configured such that at least one of them is eccentric to said longitudinal axis (L), and the other one is at least radial, the prolongation of said first and second side walls being on one and the same side of said longitudinal axis (L) and [f] said plurality of channels being inclined forming an angle (α) with respect to said longitudinal direction (L) which is comprised between 10° and 40° for aiming a jet of cooling liquid on said wire in the direction from said injection chamber towards said cooling chamber .
An airfoil assembly comprising: an airfoil body extending from a root to a tip defining a longitudinal axis therebetween, wherein the airfoil body includes a leading edge between the root and the tip ; and a sheath direct deposited on the airfoil body , wherein the sheath includes at least one metallic material layer conforming to a composite surface of the airfoil body; and wherein the sheath includes a plurality of layers , and characterized by a first layer being in direct contact with the composite surface of the airfoil body including a metallic material and having a lower deposition temperature than layers exterior to the first layer. an airfoil body extending from a root to a tip defining a longitudinal axis therebetween, wherein the airfoil body includes a leading edge between the root and the tip ; and a sheath direct deposited on the airfoil body , wherein the sheath includes at least one metallic material layer conforming to a composite surface of the airfoil body; and wherein the sheath includes a plurality of layers , and characterized by a first layer being in direct contact with the composite surface of the airfoil body including a metallic material and having a lower deposition temperature than layers exterior to the first layer.
Rotor of an electric machine , in particular an electric motor, having a rotor body surrounding a shaft circumferentially, and having a number of magnets , wherein each of the magnets is each arranged within a radially running pocket of the rotor body , - wherein each of the pockets is connected by means of an axially running slot to a respectively radially inner chamber of the rotor body , - characterized in that the rotor body has an axially extending first hollow cylinder and an axially extending second hollow cylinder which, in the radial direction , is arranged between the first hollow cylinder and the chambers , - wherein the first hollow cylinder and the second hollow cylinder are connected to each other by means of spokes running at least partly radially, and - wherein the spokes run radially and tangentially, and/or wherein the rotor body has an axially extending third hollow cylinder which, in the radial direction , is arranged between the first hollow cylinder and the second hollow cylinder . - wherein each of the pockets is connected by means of an axially running slot to a respectively radially inner chamber of the rotor body , - characterized in that the rotor body has an axially extending first hollow cylinder and an axially extending second hollow cylinder which, in the radial direction , is arranged between the first hollow cylinder and the chambers , - wherein the first hollow cylinder and the second hollow cylinder are connected to each other by means of spokes running at least partly radially, and - wherein the spokes run radially and tangentially, and/or wherein the rotor body has an axially extending third hollow cylinder which, in the radial direction , is arranged between the first hollow cylinder and the second hollow cylinder .
A method for wireless communications performed by a user equipment, UE , comprising: receiving an indication of a modulation and coding scheme, MCS, and a size of a first control channel; receiving a wireless transmission comprising the first control channel wherein the receiving comprises decoding at least a part of the first control channel using the indicated MCS and size, wherein the first control channel includes a plurality of downlink control information, DCI, signals multiplexed in the bit domain for a plurality of UEs within one or more control channel elements, CCE, at a first aggregation level, AL, and wherein the first control channel includes a first downlink control information, DCI, signal at the first aggregation level, AL, and an indication of a first power level used for transmitting the first control channel; identifying the first DCI signal at the first AL within the first control channel directed to the UE ; receiving a second control channel from the wireless transmission, wherein the second control channel includes a second DCI signal at a second AL; and characterised in that the receiving comprises using successive interference cancellation, SIC, based on the indication of the first power level to cancel the first control channel from the wireless transmission and to detect the second control channel. receiving an indication of a modulation and coding scheme, MCS, and a size of a first control channel; receiving a wireless transmission comprising the first control channel wherein the receiving comprises decoding at least a part of the first control channel using the indicated MCS and size, wherein the first control channel includes a plurality of downlink control information, DCI, signals multiplexed in the bit domain for a plurality of UEs within one or more control channel elements, CCE, at a first aggregation level, AL, and wherein the first control channel includes a first downlink control information, DCI, signal at the first aggregation level, AL, and an indication of a first power level used for transmitting the first control channel; identifying the first DCI signal at the first AL within the first control channel directed to the UE ; receiving a second control channel from the wireless transmission, wherein the second control channel includes a second DCI signal at a second AL; and characterised in that the receiving comprises using successive interference cancellation, SIC, based on the indication of the first power level to cancel the first control channel from the wireless transmission and to detect the second control channel.
A method for producing a wired circuit board comprising: a step of forming a seed layer on one surface in a thickness direction of a peeling layer , a step of forming a conductive pattern on one surface in the thickness direction of the seed layer , a step of covering the seed layer and the conductive pattern with an insulating layer , a step of peeling the peeling layer from the seed layer , and a step of removing the seed layer , wherein the insulating layer covers the upper surface of the seed layer and the facing surfaces and the side surfaces of the conductive patterns , and in the insulating layer , the portions covering the facing surfaces and the side surfaces of the conductive patterns are ditch portions , and the insulating layer is formed of at least one kind of insulating material selected from the group consisting of urethane-(meth)acrylic resin and silicone resin, characterized in that the insulating layer has the number of times of folding endurance measured in conformity with JIS P8115 of 10 times or more, and a tensile storage elastic modulus E' at 20°C at the time of subjecting the insulating layer to dynamic viscoelasticity measurement under the conditions of a frequency of 1 Hz and a temperature rising rate of 10°C/min is 100 MPa or less, and 0.1 MPa or more. a step of forming a seed layer on one surface in a thickness direction of a peeling layer , a step of forming a conductive pattern on one surface in the thickness direction of the seed layer , a step of covering the seed layer and the conductive pattern with an insulating layer , a step of peeling the peeling layer from the seed layer , and a step of removing the seed layer , wherein the insulating layer covers the upper surface of the seed layer and the facing surfaces and the side surfaces of the conductive patterns , and in the insulating layer , the portions covering the facing surfaces and the side surfaces of the conductive patterns are ditch portions , and the insulating layer is formed of at least one kind of insulating material selected from the group consisting of urethane-(meth)acrylic resin and silicone resin, characterized in that the insulating layer has the number of times of folding endurance measured in conformity with JIS P8115 of 10 times or more, and a tensile storage elastic modulus E' at 20°C at the time of subjecting the insulating layer to dynamic viscoelasticity measurement under the conditions of a frequency of 1 Hz and a temperature rising rate of 10°C/min is 100 MPa or less, and 0.1 MPa or more.
A laundry treatment composition comprising: (i) from 2 to 70 wt% of a surfactant; and, (ii) from 0.0001 to 0.1 wt%, as measured as the sodium salt, of a blue or violet phenoxazine dye of the following formula and N-oxide thereof: wherein R 1 to R 6 are independently selected from H and Cl and wherein at least 4 of R 1 to R 6 are Cl. (i) from 2 to 70 wt% of a surfactant; and, (ii) from 0.0001 to 0.1 wt%, as measured as the sodium salt, of a blue or violet phenoxazine dye of the following formula and N-oxide thereof:
Rotor blade for arranging in a gas channel of a turbomachine , comprising a rotor blade airfoil which radially on the inside has a chord length S i , radially on the outside has a chord length S a , and at a radial position r x inbetween has a chord length S x , the chord length S x at the radial position r x being at least as large as the chord length S i radially on the inside (S i ≤ S x ), characterized in that the chord length S a radially on the outside corresponds at most to 0.9 times the chord length S x at the radial position r x inbetween (S a ≤ 0.9 S x ), a radial progression of the chord length S(r) radially inward from the radial position r x exhibiting a monotonic decrease from S x to S i , and the chord length Si radially on the inside corresponding to at least 0.9 times the chord length S x radially inbetween (S i ≥ 0.9 S x ). radially on the inside has a chord length S i , radially on the outside has a chord length S a , and at a radial position r x inbetween has a chord length S x , the chord length S x at the radial position r x being at least as large as the chord length S i radially on the inside (S i ≤ S x ), characterized in that the chord length S a radially on the outside corresponds at most to 0.9 times the chord length S x at the radial position r x inbetween (S a ≤ 0.9 S x ), a radial progression of the chord length S(r) radially inward from the radial position r x exhibiting a monotonic decrease from S x to S i , and the chord length Si radially on the inside corresponding to at least 0.9 times the chord length S x radially inbetween (S i ≥ 0.9 S x ).
A swimming pool cleaner comprising: a. a body ; b. a visible light source positioned within the body ; c. a motor block positioned at least partially within the body ; d. a debris filter configured for placement at least partially within the body ; characterized in that the light source is positioned within the motor block and is configured to illuminate the debris filter when the debris filter is placed at least partially within the body . a. a body ; b. a visible light source positioned within the body ; c. a motor block positioned at least partially within the body ; d. a debris filter configured for placement at least partially within the body ;
An apparatus , comprising: a reconfigurable optical add/drop multiplexer, ROADM, having: an input port (1 10a) configured to receive a first optical signal from a second device; a first wavelength selective switch , WSS, in optical communication with the input port and configured to convert the first optical signal into a second optical signal; a loopback , in optical communication with the first WSS and configured to transmit the second optical signal; and a second WSS , in optical communication with the loopback and configured to convert the second optical signal to a third optical signal and direct the third optical signal back to the second device via the input port (1 10a), following the same beam path as the first optical signal. an input port (1 10a) configured to receive a first optical signal from a second device; a first wavelength selective switch , WSS, in optical communication with the input port and configured to convert the first optical signal into a second optical signal; a loopback , in optical communication with the first WSS and configured to transmit the second optical signal; and a second WSS , in optical communication with the loopback and configured to convert the second optical signal to a third optical signal and direct the third optical signal back to the second device via the input port (1 10a), following the same beam path as the first optical signal.
A lighting device comprising a light source ; a base part ; and an upper part mounted over the base part , wherein there is an internal volume between the base part and the upper part , the lighting device further comprising, located within the internal volume : a first antenna segment having a first length extending outwardly from the base part towards the internal volume ; and a second antenna segment held by the upper part and mounted partially over the first antenna segment , having a second length parallel with the first length, the first and second antenna segments being physically separated but electrically coupled via a non-contact electric and/or magnetic field electrical coupling, wherein the second antenna segment extends outwardly beyond the end of the first antenna segment . a light source ; a base part ; and an upper part mounted over the base part , wherein there is an internal volume between the base part and the upper part , the lighting device further comprising, located within the internal volume : a first antenna segment having a first length extending outwardly from the base part towards the internal volume ; and a second antenna segment held by the upper part and mounted partially over the first antenna segment , having a second length parallel with the first length, the first and second antenna segments being physically separated but electrically coupled via a non-contact electric and/or magnetic field electrical coupling, wherein the second antenna segment extends outwardly beyond the end of the first antenna segment . a first antenna segment having a first length extending outwardly from the base part towards the internal volume ; and a second antenna segment held by the upper part and mounted partially over the first antenna segment , having a second length parallel with the first length, the first and second antenna segments being physically separated but electrically coupled via a non-contact electric and/or magnetic field electrical coupling, wherein the second antenna segment extends outwardly beyond the end of the first antenna segment .
Cooling device for an electrical energy store (EES) for cooling energy storage cells of the electrical energy store (EES), wherein the cooling device comprises gravity heat pipes with a working medium for taking up waste heat from the energy storage cells , characterized in that the cooling device has a frame with walls for forming receptacles for the energy storage cells , wherein the gravity heat pipes are integrated in the walls and the walls for this have cavities which are vertically tubular along the direction of gravity and are filled with the working medium to form the gravity heat pipes .
A fill level measuring device for determining a level of a filling material in a vessel using a frequency-modulated continuous wave, FMCW, signal, the fill level measuring device comprising: a high-frequency circuit configured to generate a transmission signal , wherein the transmission signal has at least one frequency ramp ; a transmission apparatus configured to emit the transmission signal towards the filling material ; an evaluation unit configured to determine the level of the filling material on the basis of the transmission signal reflected at the filling material ; wherein the at least one frequency ramp has a minimal frequency f min and a maximal frequency f max ; wherein, when determining the fill level, the evaluation unit is configured to consider only a part of the reflected transmission signal that has frequencies within a fundamental frequency interval , wherein the minimal frequency of the fundamental frequency interval is greater than the minimal frequency f min of the frequency ramp and/or the maximal frequency of the fundamental frequency interval is smaller than the maximal frequency f max of the frequency ramp, characterized in that a part of the frequency ramp is passed during a settling time of parts of the fill level measuring device, and the fundamental frequency interval is reached after the settling time. a high-frequency circuit configured to generate a transmission signal , wherein the transmission signal has at least one frequency ramp ; a transmission apparatus configured to emit the transmission signal towards the filling material ; an evaluation unit configured to determine the level of the filling material on the basis of the transmission signal reflected at the filling material ; wherein the at least one frequency ramp has a minimal frequency f min and a maximal frequency f max ; wherein, when determining the fill level, the evaluation unit is configured to consider only a part of the reflected transmission signal that has frequencies within a fundamental frequency interval , wherein the minimal frequency of the fundamental frequency interval is greater than the minimal frequency f min of the frequency ramp and/or the maximal frequency of the fundamental frequency interval is smaller than the maximal frequency f max of the frequency ramp, characterized in that a part of the frequency ramp is passed during a settling time of parts of the fill level measuring device, and the fundamental frequency interval is reached after the settling time.
A system for providing therapy to a subject, the system comprising: a body including two intertwined helically wound runners, a first runner and a second runner, arranged in at least two complete revolutions per runner with the first runner coupled to the second runner by struts, wherein the struts do not conduct electricity between the first runner and the second runner, wherein the body is arranged in a toroidal shape having a centroid, wherein the centroid is adapted to be arranged at or near one or both of the subject and/or a body part of the subject; a first wire spirally wound around a first runner such that the first wire is arranged in a helical shape having an axis that coincides with the first runner, wherein the first wire is conductive; a second wire spirally wound around the second runner such that the second wire is arranged in a helical shape having an axis that coincides with the second runner, wherein the second wire is conductive and two leads of the first wire configured to be electrically coupled with a current source to receive a first current through the first wire along the first runner, two leads of the second wire are configured to be electrically coupled with the current source to receive a second current through the second wire along the second runner, such that an electromagnetic field is created at or near the centroid that provides therapy to the subject. a body including two intertwined helically wound runners, a first runner and a second runner, arranged in at least two complete revolutions per runner with the first runner coupled to the second runner by struts, wherein the struts do not conduct electricity between the first runner and the second runner, wherein the body is arranged in a toroidal shape having a centroid, wherein the centroid is adapted to be arranged at or near one or both of the subject and/or a body part of the subject; a first wire spirally wound around a first runner such that the first wire is arranged in a helical shape having an axis that coincides with the first runner, wherein the first wire is conductive; a second wire spirally wound around the second runner such that the second wire is arranged in a helical shape having an axis that coincides with the second runner, wherein the second wire is conductive and two leads of the first wire configured to be electrically coupled with a current source to receive a first current through the first wire along the first runner, two leads of the second wire are configured to be electrically coupled with the current source to receive a second current through the second wire along the second runner, such that an electromagnetic field is created at or near the centroid that provides therapy to the subject.