mhurhangee/patent-ind-claim-en huggingface dataset:
A vapour provision system for generating a vapour for user inhalation, comprising: a housing ; a first user input mechanism configured to provide a first input to control a first aspect of vapour generation and located on a first side of the housing; and a second user input mechanism configured to provide a second input to control a second aspect of vapour generation and located on a second side of the housing, the second side of the housing opposite to the first side of the housing, wherein the first user input mechanism and the second user input mechanism are different types of user input mechanisms. a housing ; a first user input mechanism configured to provide a first input to control a first aspect of vapour generation and located on a first side of the housing; and a second user input mechanism configured to provide a second input to control a second aspect of vapour generation and located on a second side of the housing, the second side of the housing opposite to the first side of the housing, wherein the first user input mechanism and the second user input mechanism are different types of user input mechanisms.
A process of preparing a bakery ingredient mix in the form of a pourable liquid, said process comprising combining: • 1-10 wt.% of fat particles in the form of fat powder with a bulk density in the range of 0.02-0.3 g/ml, said fat particles containing at least 65 wt.% of triglycerides and at least 90 wt.% of glycerides selected from triglycerides, diglycerides and combinations thereof; • 40-98 wt.% of one or more bulk ingredients selected from flour, polysaccharide, sugar, oil and combinations thereof, including 30-96% oil by weight of the bakery ingredient mix; and • 0.2-50 wt.% of one or more functional ingredients selected from enzymes, ascorbic acid, chemical leavening agent, baker's yeast, active lactic acid bacteria and combinations thereof; wherein at least 50 vol.% of the fat particles has a diameter in the range of 1-50 μm and wherein the fat particles have a volume weighted average diameter of less than 50 μm, as determined by means of dry powder laser diffraction; wherein the fat that is contained in the fat particles has a solid fat profile of: N 20 ≥ 40 % ; N 30 ≥ 20 % ; N 40 ≥ 5 % ; wherein the N-value N t equals the solid fat content of a fat at a temperature of t °C as measured by means of ISO 8292 - Animal and vegetable fats and oils - Determination of solid fat content - Pulsed nuclear magnetic resonance method; and wherein the combination of fat powder, the one or more bulk ingredients and the one or more functional ingredients represents at least 60 wt.% of the bakery ingredient mix. • 1-10 wt.% of fat particles in the form of fat powder with a bulk density in the range of 0.02-0.3 g/ml, said fat particles containing at least 65 wt.% of triglycerides and at least 90 wt.% of glycerides selected from triglycerides, diglycerides and combinations thereof; • 40-98 wt.% of one or more bulk ingredients selected from flour, polysaccharide, sugar, oil and combinations thereof, including 30-96% oil by weight of the bakery ingredient mix; and • 0.2-50 wt.% of one or more functional ingredients selected from enzymes, ascorbic acid, chemical leavening agent, baker's yeast, active lactic acid bacteria and combinations thereof; wherein at least 50 vol.% of the fat particles has a diameter in the range of 1-50 μm and wherein the fat particles have a volume weighted average diameter of less than 50 μm, as determined by means of dry powder laser diffraction; wherein the fat that is contained in the fat particles has a solid fat profile of: N 20 ≥ 40 % ; N 30 ≥ 20 % ; N 40 ≥ 5 % ; wherein the N-value N t equals the solid fat content of a fat at a temperature of t °C as measured by means of ISO 8292 - Animal and vegetable fats and oils - Determination of solid fat content - Pulsed nuclear magnetic resonance method; and wherein the combination of fat powder, the one or more bulk ingredients and the one or more functional ingredients represents at least 60 wt.% of the bakery ingredient mix.
A glenoid implant of a shoulder prosthesis, comprising: an anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) including a longitudinal portion (216; 216A; 216B; 216C; 216D; 216E) configured to be secured to a bone; a baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) including a proximal end and a distal end ; a glenosphere including an articular surface ; and a locking structure configured to couple the baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) to the glenosphere , characterized in that the baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) is configured to receive a proximal head (220; 340) of the anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) from the distal end of the baseplate, and in that the locking structure is configured to contact the proximal head (220; 340) of the anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) to apply a distally directed force to the anchor member to reduce rotation of the anchor member with respect to the baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336). an anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) including a longitudinal portion (216; 216A; 216B; 216C; 216D; 216E) configured to be secured to a bone; a baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) including a proximal end and a distal end ; a glenosphere including an articular surface ; and a locking structure configured to couple the baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) to the glenosphere , characterized in that the baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336) is configured to receive a proximal head (220; 340) of the anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) from the distal end of the baseplate, and in that the locking structure is configured to contact the proximal head (220; 340) of the anchor member (104; 104A; 104B; 104C; 104D; 104E; 312) to apply a distally directed force to the anchor member to reduce rotation of the anchor member with respect to the baseplate (108; 108B; 108C; 108D; 108E; 108F; 108G; 108H; 336).
An eNB for interference mitigation in a wireless communication, the apparatus comprising: a modulator arranged for receiving data to be transmitted to a UE ; the modulator being configurable to operate according to a linear m-ary modulation constellation and at least another modulation constellation to modulate the data according to the linear m-ary modulation constellation or the at least another modulation constellation and output modulated data, the modulated data corresponding to at least one of PDCCH or EPDCCH and including OFDM symbols; a resource mapper arranged to map the modulated data onto allocated subcarriers; and a subcarrier modulator arranged for receiving the mapped modulated data and outputting respective subcarriers associated with the mapped modulated data; wherein the linear m-ary modulation constellation comprises I and Q components representing constellation points that are all linearly disposed, wherein the modulator is arranged to switch from the at least another modulation constellation to a linear m-ary constellation modulation if interference exceeds a predetermined threshold. a modulator arranged for receiving data to be transmitted to a UE ; the modulator being configurable to operate according to a linear m-ary modulation constellation and at least another modulation constellation to modulate the data according to the linear m-ary modulation constellation or the at least another modulation constellation and output modulated data, the modulated data corresponding to at least one of PDCCH or EPDCCH and including OFDM symbols; a resource mapper arranged to map the modulated data onto allocated subcarriers; and a subcarrier modulator arranged for receiving the mapped modulated data and outputting respective subcarriers associated with the mapped modulated data; wherein the linear m-ary modulation constellation comprises I and Q components representing constellation points that are all linearly disposed, wherein the modulator is arranged to switch from the at least another modulation constellation to a linear m-ary constellation modulation if interference exceeds a predetermined threshold.
A cable tray for a transport vehicle , in particular a rail vehicle, the cable tray comprising an attachment portion and fixing lugs secured to the attachment portion , in which: - the attachment portion has an elongated shape defining a cabling axis (A8) and comprises two outer edges opposite and parallel to the cabling axis (A8), - the fixing lugs are intended to be attached to a fixing device of a body of the vehicle , so as to keep the attachment portion immobile in an internal volume (V6) of the body, and - the fixing lugs and the attachment portion are made in one piece, the fixing lugs extending from a respective outer edge of the attachment portion , - the attachment portion comprising a top panel and a bottom panel , each having an internal flange parallel to the wiring axis (A8), the two internal flanges facing each other, characterised - in that the inner edges of the top and bottom panels are connected to each other by intermediate fixing lugs , which are separated by recesses and which are configured to be fixed to an intermediate rail of the fixing device , the recesses being configured to free access, from the internal volume (V6), to portions of the intermediate rail I located between the intermediate fixing lugs , and - in that the intermediate fixing lugs are made in one piece with the top and bottom panels. - the attachment portion has an elongated shape defining a cabling axis (A8) and comprises two outer edges opposite and parallel to the cabling axis (A8), - the fixing lugs are intended to be attached to a fixing device of a body of the vehicle , so as to keep the attachment portion immobile in an internal volume (V6) of the body, and - the fixing lugs and the attachment portion are made in one piece, the fixing lugs extending from a respective outer edge of the attachment portion , - the attachment portion comprising a top panel and a bottom panel , each having an internal flange parallel to the wiring axis (A8), the two internal flanges facing each other, - in that the inner edges of the top and bottom panels are connected to each other by intermediate fixing lugs , which are separated by recesses and which are configured to be fixed to an intermediate rail of the fixing device , the recesses being configured to free access, from the internal volume (V6), to portions of the intermediate rail I located between the intermediate fixing lugs , and - in that the intermediate fixing lugs are made in one piece with the top and bottom panels.
Processing method intended to make it possible to produce an image (IR), referred to as the final image, comprising a juxtaposition of image elements in a substrate having a thickness and producing a thickness image such that a shadow effect of each image element is produced on its neighbouring image elements, said method comprising a step of determining, on the basis of a target image referred to as the objective image (IO), an improved production setpoint (SA) which can be used as input by an image production device to produce said final image (IR); where the determining step comprises the following steps: - modelling the image production device with a transfer function F transforming a plurality of production setpoints S into a corresponding predicted image (IP), and - determining, by inverting the transfer function F, the improved production setpoint (SA) which can be used as input by the production device to produce said final image (IR), so as to at least partially correct the shadow effect in the final image (IR), in which said determining step comprises an automatic iterative computation minimizing a colorimetric distance between the objective image (IO) and an image (IP) predicted by the transfer function F applied to a production setpoint S. said method comprising a step of determining, on the basis of a target image referred to as the objective image (IO), an improved production setpoint (SA) which can be used as input by an image production device to produce said final image (IR); where the determining step comprises the following steps: - modelling the image production device with a transfer function F transforming a plurality of production setpoints S into a corresponding predicted image (IP), and - determining, by inverting the transfer function F, the improved production setpoint (SA) which can be used as input by the production device to produce said final image (IR), so as to at least partially correct the shadow effect in the final image (IR), - modelling the image production device with a transfer function F transforming a plurality of production setpoints S into a corresponding predicted image (IP), and - determining, by inverting the transfer function F, the improved production setpoint (SA) which can be used as input by the production device to produce said final image (IR), so as to at least partially correct the shadow effect in the final image (IR), in which said determining step comprises an automatic iterative computation minimizing a colorimetric distance between the objective image (IO) and an image (IP) predicted by the transfer function F applied to a production setpoint S.
Rubber composition comprising (A) at least one rubber selected from sulphur vulcanizable rubbery elastomers, (B) silica, (C) at least one non-ionic surfactant (C) that is selected from compounds according to general formula (I a) R 1 -CH(OH)-CH 2 -O-(AO) x -R 2 (I a) and from compounds according to general formula (I b) R 1 -CH(OH)-CH 2 -O-(AO) x -A 1 -O-(AO) y -CH 2 -CH(OH)-R 1 (I b) and from compounds according to general formula (I c) R 1 -CO-NH-CH 2 -CH 2 -O-(AO) x -CH 2 -CH 2 -NH-CO-R 1 (I c) wherein R 1 are same or different and selected from C 4 -C 30 -alkyl, straight-chain or branched, and from C 4 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, R 2 are same or different and selected from C 1 -C 30 -alkyl, straight-chain or branched, and from C 2 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, A 1 is selected from C 2 -C 10 -alkylene, straight chain or branched, x, y same or different and selected from 10 to 50, AO is selected from identical or different alkylene oxides, selected from CH 2 -CH 2 -O, (CH 2 ) 3 -O, (CH 2 ) 4 -O, CH 2 CH(CH 3 )-O, CH(CH 3 )-CH 2 -O- and CH 2 CH(n-C 3 H 7 )-O. (A) at least one rubber selected from sulphur vulcanizable rubbery elastomers, (B) silica, (C) at least one non-ionic surfactant (C) that is selected from compounds according to general formula (I a) R 1 -CH(OH)-CH 2 -O-(AO) x -R 2 (I a) and from compounds according to general formula (I b) R 1 -CH(OH)-CH 2 -O-(AO) x -A 1 -O-(AO) y -CH 2 -CH(OH)-R 1 (I b) and from compounds according to general formula (I c) R 1 -CO-NH-CH 2 -CH 2 -O-(AO) x -CH 2 -CH 2 -NH-CO-R 1 (I c) wherein R 1 are same or different and selected from C 4 -C 30 -alkyl, straight-chain or branched, and from C 4 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, R 2 are same or different and selected from C 1 -C 30 -alkyl, straight-chain or branched, and from C 2 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, A 1 is selected from C 2 -C 10 -alkylene, straight chain or branched, x, y same or different and selected from 10 to 50, AO is selected from identical or different alkylene oxides, selected from CH 2 -CH 2 -O, (CH 2 ) 3 -O, (CH 2 ) 4 -O, CH 2 CH(CH 3 )-O, CH(CH 3 )-CH 2 -O- and CH 2 CH(n-C 3 H 7 )-O. R 1 are same or different and selected from C 4 -C 30 -alkyl, straight-chain or branched, and from C 4 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, R 2 are same or different and selected from C 1 -C 30 -alkyl, straight-chain or branched, and from C 2 -C 30 -alkylene, straight-chain or branched, with at least one C-C double bond, A 1 is selected from C 2 -C 10 -alkylene, straight chain or branched, x, y same or different and selected from 10 to 50, AO is selected from identical or different alkylene oxides, selected from CH 2 -CH 2 -O, (CH 2 ) 3 -O, (CH 2 ) 4 -O, CH 2 CH(CH 3 )-O, CH(CH 3 )-CH 2 -O- and CH 2 CH(n-C 3 H 7 )-O.
Vehicle with roof security system and tarpaulin cover and a vehicle structure supporting the tarpaulin cover , wherein the roof security system comprises an inflatable body which can be filled with a fluid, in particular a tube which is arranged between the vehicle structure and the tarpaulin cover and which is designed to raise up the tarpaulin cover when filled to prevent or remove accumulations, in particular water, on the roof surface, wherein the inflatable body is connected to a filling and evacuating line which is connected via a pneumatic system to a supply unit which is situated on the pressure input side of the pneumatic system and through which a predetermined air pressure bears against the pressure input side of the pneumatic system , wherein a control is further provided which is designed to control the filling and evacuating of the inflatable body wherein the control is further designed so that the filling of the inflatable body is stopped when a predetermined pressure value is reached, characterised in that a pressure sensor which communicates with the control is provided at the pressure output side (4b.1) of the pneumatic system and detects the pressure prevailing in the inflatable body which is to be transmitted to the control .
Apparatus for reducing and/or avoiding harmful bearing currents in an electrical machine (M) such as preferably a three-phase EC motor (M), having a rotor and a stator which is constructed in an insulated manner, wherein at least one outer bearing ring and one inner bearing ring are provided between rotor and stator , comprising a connecting electronics for connecting the motor (M), characterized in that the stator is connected by means of an electrical connection to a high-frequency electronics potential which differs from and is stable with respect to the earth potential (U E ) at a potential tap of the connecting electronics .
A tool for driving a chain pin out of a chain link , comprising ▪ a handle body which extends along a longitudinal axis (A) and has a positioning element at a first end along the longitudinal axis (A), ▪ and a press-out device having an upper and a lower projection, each of which delimits an intermediate element connecting the two projections , wherein through bores coaxial with one another are provided in the two projections and a driving screw with a press plunger is screwed into the upper projection at its end oriented towards the lower projection , characterized in that the handle body has, at the first end along the longitudinal axis (A), a guide device extending the handle body along the longitudinal axis (A), in which the press-out device is movably mounted along the longitudinal axis (A) of the handle body between a first position, in which the positioning element and the intermediate element of the press-out device form a chain space for positioning the chain link , and a second position, in which the press-out device is spaced apart from the positioning element . ▪ a handle body which extends along a longitudinal axis (A) and has a positioning element at a first end along the longitudinal axis (A), ▪ and a press-out device having an upper and a lower projection, each of which delimits an intermediate element connecting the two projections , wherein through bores coaxial with one another are provided in the two projections and a driving screw with a press plunger is screwed into the upper projection at its end oriented towards the lower projection ,
A glass article for use in Extreme Ultra-Violet Lithography (EUVL), the glass article comprising a silica-titania glass having a compositional gradient through the glass article, the compositional gradient being defined by the functions: TiO 2 = c + f x y z , and SiO 2 = 100 − c + f x y z − δ x y z wherein [TiO 2 ] is the concentration of titania in wt.%, [SiO 2 ] is the concentration of silica in wt.%, c is the titania concentration in wt.% for a predetermined zero crossover temperature (T zc ), f(x,y,z) is a function in three-dimensional space that defines the difference in average composition of a volume element centered at the coordinates (x,y,z) with respect to c, and δ(x,y,z) is a function in three-dimensional space that defines the sum of all other components of a volume element centered at the coordinates (x,y,z); wherein f(x,y,z) is independent of z, and the glass article comprises multidirectional variations in the x,y plane; and wherein f(x,y,z) is a stepped function along both the x- and the y-axis such that the glass article has layers in the shape of generalized cylindrical surfaces of constant composition. wherein [TiO 2 ] is the concentration of titania in wt.%, [SiO 2 ] is the concentration of silica in wt.%, c is the titania concentration in wt.% for a predetermined zero crossover temperature (T zc ), f(x,y,z) is a function in three-dimensional space that defines the difference in average composition of a volume element centered at the coordinates (x,y,z) with respect to c, and δ(x,y,z) is a function in three-dimensional space that defines the sum of all other components of a volume element centered at the coordinates (x,y,z); wherein f(x,y,z) is independent of z, and the glass article comprises multidirectional variations in the x,y plane; and wherein f(x,y,z) is a stepped function along both the x- and the y-axis such that the glass article has layers in the shape of generalized cylindrical surfaces of constant composition.