mhurhangee/ep-ind-claims huggingface dataset:
Method for saving the operation of a vehicle comprising a power supply network for electrical consumers, a battery, an engine and a generator (2, 22) coupled to the engine to supply electrical energy to the battery and to the power supply network (63, 68), characterized in that it comprises: - a saving step consisting in raising an idling speed of the engine when the battery is disconnected from the power supply network (63, 68). - a saving step consisting in raising an idling speed of the engine when the battery is disconnected from the power supply network (63, 68).
A method of detecting a reduction in tension in a tape, wherein the tape is transferrable between a first spool (15, 17) and a second spool (15, 17) by a tape drive, the tape drive having a motor control system which includes two DC motors (16, 18) and a controller for controlling the operation of the motors (16, 18), the tape drive also having two spool supports (12, 14), each of which is suitable for supporting a spool of tape, and each of which is driven by a respective one of the motors (16, 18), characterised in that the method includes storing a value relating to the current required to be supplied to each motor (16, 18) to maintain tension in the tape, and comparing a value relating to the current being supplied to each of the motors (16, 18) during tape transfer with the respective stored values and wherein in the event that at least one of the values relating to current being supplied to the motors (16, 18) during tape transfer is lower than the respective stored value, the motor control system indicates that the tension in the tape has reduced and the method further includes a method of detecting breakage of the tape by means of monitoring the movement of at least one of the motors (16, 18).
A set comprising a connection foot and a soil covering element support element, which support element comprises a basis provided for being applied on a surface raising pedestal, which basis comprises at a first longitudinal end a stop member which extends substantially perpendicular with respect to the basis, which connection foot is provided for connecting the support element to the pedestal, which connection foot comprises a second set of attachment members provided for gripping with the pedestal and enabling a rotation of the connection foot with respect to the pedestal, characterized in that the basis of the support element comprises a set of attachment slats which extend over at least 70% of the length of the basis, and in that the connection foot comprises a set of first attachment members (31-1 to 31-4), the first attachment members being dimensioned and applied in such a manner as to be able to engage between the attachment slats of the set of attachment slats and enter into contact with them so as to enable a translatory movement between the support element and the connection foot.
A non-transitory processor-readable medium storing code representing instructions that when executed by a processor cause a printing system to: for upcoming image content to be printed, determine a text and line print mode or a graphics print mode to use for printing the image content; select a first nozzle column to print the image content when the text and line print mode is determined; and select a second nozzle column to print the image content when the graphics print mode is determined; wherein the first and second nozzle columns (204a, 204b) have respective different first and second nozzle features associated thereto, the different nozzle features configured to produce different dot shapes. for upcoming image content to be printed, determine a text and line print mode or a graphics print mode to use for printing the image content; select a first nozzle column to print the image content when the text and line print mode is determined; and select a second nozzle column to print the image content when the graphics print mode is determined; wherein the first and second nozzle columns (204a, 204b) have respective different first and second nozzle features associated thereto, the different nozzle features configured to produce different dot shapes.
Monolithic frequency converter comprising: a monolithic non-linear crystal with input and output faces with polishing, e.g. spherical, and partially reflective coating for at least one wavelength so as to form a resonant cavity, said crystal having a periodically-poled active section and two side sections located next to input and/or output face, and means for controlling the temperature of the different sections independently. a monolithic non-linear crystal with input and output faces with polishing, e.g. spherical, and partially reflective coating for at least one wavelength so as to form a resonant cavity, said crystal having a periodically-poled active section and two side sections located next to input and/or output face, and means for controlling the temperature of the different sections independently.
Method for determining the maximum possible number of constant tables (KT1-KT4) at table locations in one or more pick-and-place lines for the placement of components on assemblies with the aid of pick-and-place machines (BA1, BA2), wherein the fittings on the constant tables (KT1-KT4) are used in all the fitting families of a pick-and-place line, wherein a fitting family comprises a set of assemblies which can be produced on a pick-and-place line with a common component fitting, and wherein the entire set of component types required for this purpose can be accommodated on the table locations available to the pick-and-place line, characterized in that the maximum possible number of constant tables (KT1-KT4) is determined by means of calculation with the aid of mixed integer linear optimization on the basis of input data describing the pick-and-place infrastructure (BL, BA1, BA2, TS, KT1-KT4, VT1-VT4, BK1-BK8), wherein the pick-and-place infrastructure can comprise in particular the pick-and-place lines having the pick-and-place machines (BA1, BA2), each having pick-and-place heads (KT1-KT4), at least one transport system for the assemblies, said constant tables and further tables which can be variably fitted, wherein the following data are used as input data: - set of component types, - set of assembly types, - set of component types per assembly type, - track occupation per component type, - maximum track capacity per table, - set of tables of a pick-and-place line, - set of permissible component types per table, and wherein the tables with maximum total track capacity, i.e. with the maximum sum of the track capacities, are selected as constant tables. - set of component types, - set of assembly types, - set of component types per assembly type, - track occupation per component type, - maximum track capacity per table, - set of tables of a pick-and-place line, - set of permissible component types per table,
Method of manufacturing decorative laminates including the steps of: a) inkjet printing a first decorative layer 7 by a first multi-pass inkjet printer 13 and delivering the inkjet printed first decorative layer 7 to a laminate heating press 11 where it is heat pressed into a decorative laminate; and b) inkjet printing a second decorative layer 7 by a second multi-pass inkjet printer 13 and delivering the inkjet printed second decorative layer 7 to the same laminate heating press 11 where it is heat pressed into a decorative laminate, wherein the inkjet printing is performed on an ink acceptance layer present on the surface of a thermosetting resin impregnated paper substrate. a) inkjet printing a first decorative layer 7 by a first multi-pass inkjet printer 13 and delivering the inkjet printed first decorative layer 7 to a laminate heating press 11 where it is heat pressed into a decorative laminate; and b) inkjet printing a second decorative layer 7 by a second multi-pass inkjet printer 13 and delivering the inkjet printed second decorative layer 7 to the same laminate heating press 11 where it is heat pressed into a decorative laminate,
Prosthetic assembly (1, 10, 100), comprising a prosthetic component (2, 20, 200) and a retention screw (6, 60, 600), the prosthetic assembly being able to cooperate with a dental implant (7, 70) and designed to aid in removal of a prosthesis after used by a subject; and comprising an interference geometry (5, 50, 500) designed to allow relative rotation, limit relative longitudinal motion, and inseparably join the prosthetic component (2, 20, 200) and said retention screw (6, 60, 600), wherein the interference geometry (5, 50, 500) comprises a lower surface and cooperates with a portion having a smaller diameter (62, 602) of the body of the retention screw (6, 60, 600), wherein the portion having a smaller diameter (62, 602) of the body of the retention screw comprises a surface which abuts the lower surface of the interference member (5, 50, 500) when a removal torque is applied to the screw (6, 60, 600).
A rectifier system comprising: a twelve pulse step-up autotransformer configured to receive a three phase AC input and produce a six phase, 12 pulse AC output, wherein the step-up autotransformer is a 1: 6 − 2 3 + 2 2 ratio autotransformer; two rectifiers (450, 460) configured to receive the six phase, 12 pulse AC output and to generate a first DC output and a second DC output; an interphase transformer configured to receive the first DC output and the second DC output and to generate a combined DC output; and wherein three phases of the six-phase AC output signal are delivered to a first rectifier, and wherein three remaining phases of the six-phase AC output signal are delivered to a second rectifier. a twelve pulse step-up autotransformer configured to receive a three phase AC input and produce a six phase, 12 pulse AC output, wherein the step-up autotransformer is a 1: 6 − 2 3 + 2 2 ratio autotransformer; two rectifiers (450, 460) configured to receive the six phase, 12 pulse AC output and to generate a first DC output and a second DC output; an interphase transformer configured to receive the first DC output and the second DC output and to generate a combined DC output; and wherein three phases of the six-phase AC output signal are delivered to a first rectifier, and wherein three remaining phases of the six-phase AC output signal are delivered to a second rectifier.
A chip package, comprising: a set of semiconductor dies arranged in a vertical stack in a vertical direction, which is substantially perpendicular to a first semiconductor die in the vertical stack, wherein each semiconductor die, after the first semiconductor die, is offset in a horizontal direction by an offset value from an immediately preceding semiconductor die in the vertical stack, thereby defining a stepped terrace at one side of the vertical stack; and a ramp component, rigidly mechanically coupled to the semiconductor dies, wherein the ramp component is positioned on the one side of the vertical stack; wherein the ramp component is approximately parallel to a direction along the stepped terrace, which is between the horizontal direction and the vertical direction; and wherein the ramp component includes: an optical waveguide configured to convey an optical signal; and an optical coupling component configured to optically couple the optical signal to a semiconductor die in the set of semiconductor dies. a set of semiconductor dies arranged in a vertical stack in a vertical direction, which is substantially perpendicular to a first semiconductor die in the vertical stack, wherein each semiconductor die, after the first semiconductor die, is offset in a horizontal direction by an offset value from an immediately preceding semiconductor die in the vertical stack, thereby defining a stepped terrace at one side of the vertical stack; and a ramp component, rigidly mechanically coupled to the semiconductor dies, wherein the ramp component is positioned on the one side of the vertical stack; wherein the ramp component is approximately parallel to a direction along the stepped terrace, which is between the horizontal direction and the vertical direction; and wherein the ramp component includes: an optical waveguide configured to convey an optical signal; and an optical coupling component configured to optically couple the optical signal to a semiconductor die in the set of semiconductor dies. an optical waveguide configured to convey an optical signal; and an optical coupling component configured to optically couple the optical signal to a semiconductor die in the set of semiconductor dies.
Method for a batchwise wet treatment of laundry in commercial washing machines, wherein a predetermined quantity of at least one treatment additive is added to the laundry at the beginning of the wet treatment and the current content of at least one treatment additive is measured at least once, characterized in that first of all only a minimum quantity of the at least one treatment additive, this minimum quantity always being necessary if laundry is only lightly soiled, is added to the laundry, at the end of a certain time period shortly after the addition of the minimum quantity of the at least one treatment additive, the current content of the at least one treatment additive is measured at least once, the consumption of the at least one treatment additive up until the measuring operation is determined therefrom in that, on the basis of the duration from the addition of the minimum quantity of the treatment additive up to the measuring operation which takes place shortly thereafter, the progression over time of the consumption of the treatment additive is determined and the degree of soiling of the batch of laundry is derived therefrom, and, on the basis of the consumption of at least one treatment additive, the quantity of the at least one treatment additive which, with account being taken of the degree of soiling determined for the batch of laundry, is possibly still to be metered in, is determined and, if appropriate, additional metering takes place.
A method for producing uniformly sized nanoparticles, the method comprising: blending at least a first precursor and at least a second precursor together to form a mixture of precursors that travels down a tube in a continuous flow path; the tube having an inner diameter of between 0,16 cm and 2,54 cm (1/16th of an inch and 1 inch) extending the continuous flow path through a first energy source that applies microwave energy to the mixture of precursors to uniformly activate the mixture of precursors within the tube for a first duration time at a first energy level thereby allowing uniform nucleation of the mixture of precursors, extending the continuous flow path through a heat source for a second duration time at a controlled temperature allowing uniform thermodynamic growth around previously formed nucleates to form desired core-sized nanoparticles; and quenching the growth of the nanoparticles, wherein the method further includes the step of providing a pressurized inert gas non-reactive to the microwave energy, the precursors and the nanoparticles into the continuous flow path before the flow path enters the energy source so as to cause partitions of the segmenting fluid within the tube positioned between segments of the mixture of precursors thereby allowing the mixture of precursors within a segment to mix as it travels within the tube down the flow path. blending at least a first precursor and at least a second precursor together to form a mixture of precursors that travels down a tube in a continuous flow path; the tube having an inner diameter of between 0,16 cm and 2,54 cm (1/16th of an inch and 1 inch) extending the continuous flow path through a first energy source that applies microwave energy to the mixture of precursors to uniformly activate the mixture of precursors within the tube for a first duration time at a first energy level thereby allowing uniform nucleation of the mixture of precursors, extending the continuous flow path through a heat source for a second duration time at a controlled temperature allowing uniform thermodynamic growth around previously formed nucleates to form desired core-sized nanoparticles; and quenching the growth of the nanoparticles, wherein the method further includes the step of providing a pressurized inert gas non-reactive to the microwave energy, the precursors and the nanoparticles into the continuous flow path before the flow path enters the energy source so as to cause partitions of the segmenting fluid within the tube positioned between segments of the mixture of precursors thereby allowing the mixture of precursors within a segment to mix as it travels within the tube down the flow path.
An air conditioner for performing air conditioning in a room, the air conditioner comprising: a detection unit (130, 310, 320) configured to detect a load in the room; a notification unit configured to notify a user of information; and a control unit, wherein the control unit is configured to cause the notification unit to notify the user that ventilation is necessary when a load condition indicating that a variation of the load detected by the detection unit (130, 310, 320) is within a predetermined range in a first time period (P 1) is satisfied. a detection unit (130, 310, 320) configured to detect a load in the room; a notification unit configured to notify a user of information; and a control unit, wherein the control unit is configured to cause the notification unit to notify the user that ventilation is necessary when a load condition indicating that a variation of the load detected by the detection unit (130, 310, 320) is within a predetermined range in a first time period (P 1) is satisfied.
An elevator car comprising: one or more sidewalls (4a, 4b) defining an interior space for accommodating passengers; and an electrical box mounted to a sidewall of the one or more sidewalls (4a, 4b) by a mount, wherein the mount is arranged to allow the electrical box to vertically translate between a first position and a second position relative to the sidewall, characterised in that: the mount comprises a locking component arranged to secure the electrical box in the second position, wherein the locking component is arranged to be overcome when a downwards force greater than the weight of the electrical box is exerted thereon, such that the electrical box is moveable from the second position to the first position. one or more sidewalls (4a, 4b) defining an interior space for accommodating passengers; and an electrical box mounted to a sidewall of the one or more sidewalls (4a, 4b) by a mount, wherein the mount is arranged to allow the electrical box to vertically translate between a first position and a second position relative to the sidewall, characterised in that: the mount comprises a locking component arranged to secure the electrical box in the second position, wherein the locking component is arranged to be overcome when a downwards force greater than the weight of the electrical box is exerted thereon, such that the electrical box is moveable from the second position to the first position.
Composition, comprising at least components and and optionally at least one of components to: a polyacrylate obtained in the polymerisation of monomers CH 2 =CR 3 COO-R 1 CH 2 =CR 3 COO-R 2 CH 2 =CR 6 COO-Y-R F and optionally CH 2 =CR 3 -X-R 4; a wax wherein the melting point of the wax ranges from 50 to 130°C determined according to ASTM D 938-05/ DIN ISO 2207:1983; a blocked isocyanate; an organic polysiloxane; a melamine resin; wherein R 1 is the alcohol moiety in (meth)acrylate monomer containing from 1 to 8 carbon atoms; R 2 is the alcohol moiety in (meth)acrylate monomer containing from 9 to 40 carbon atoms; R F -Y is the alcohol moiety in (meth)acrylate monomer, wherein Y is - (CH 2) m -, wherein m is an integer in the range of from 1 to 10; and R F is C x F 2x+1, wherein x is an integer in the range of from 1 to 12, preferably 1 to 6, more preferably 4 to 6; R 6 is selected from H, CH 3, Cl, or F; R 3 in monomer, and is independently selected from H, CH 3, or C 2 H 5; X in monomer is COO or CONH; R 4 is glycidyl or CH 2 (CH 2) n -OR 5, wherein n is an integer in the range of from 1 to 10 and R 5 is H or a residue containing from 1 to 6 carbon atoms; and wherein the composition is based on water and/or an organic solvent. a polyacrylate obtained in the polymerisation of monomers CH 2 =CR 3 COO-R 1 CH 2 =CR 3 COO-R 2 CH 2 =CR 6 COO-Y-R F and optionally CH 2 =CR 3 -X-R 4; a wax wherein the melting point of the wax ranges from 50 to 130°C determined according to ASTM D 938-05/ DIN ISO 2207:1983; a blocked isocyanate; an organic polysiloxane; a melamine resin; R 1 is the alcohol moiety in (meth)acrylate monomer containing from 1 to 8 carbon atoms; R 2 is the alcohol moiety in (meth)acrylate monomer containing from 9 to 40 carbon atoms; R F -Y is the alcohol moiety in (meth)acrylate monomer, wherein Y is - (CH 2) m -, wherein m is an integer in the range of from 1 to 10; and R F is C x F 2x+1, wherein x is an integer in the range of from 1 to 12, preferably 1 to 6, more preferably 4 to 6; R 6 is selected from H, CH 3, Cl, or F; R 3 in monomer, and is independently selected from H, CH 3, or C 2 H 5; X in monomer is COO or CONH; R 4 is glycidyl or CH 2 (CH 2) n -OR 5, wherein n is an integer in the range of from 1 to 10 and R 5 is H or a residue containing from 1 to 6 carbon atoms;
A piezoelectric element having a piezoelectric layer and electrodes (60, 80), wherein: the piezoelectric layer is 3 μm or less in thickness, and the piezoelectric layer is preferentially oriented with the plane; characterized in that the piezoelectric layer is made of a piezoelectric material including at least bismuth manganate ferrate and barium titanate, the piezoelectric material has the composition: xBi (Fe 1-a, Mn a)O 3 - yBaTiO 3 wherein 0.6 < x < 1, 0 < y < 0.40, and 0.01 < a < 0.10, and the electrodes include a platinum film oriented with the plane, and the piezoelectric layer is formed directly on the platinum film. the piezoelectric layer is 3 μm or less in thickness, and the piezoelectric layer is preferentially oriented with the plane; wherein 0.6 < x < 1, 0 < y < 0.40, and 0.01 < a < 0.10, and the electrodes include a platinum film oriented with the plane, and the piezoelectric layer is formed directly on the platinum film.
A crystalline MCM-22 family molecular sieve having, in its as-synthesized form, a platelet aggregates morphology wherein greater than 50 wt% of the molecular sieve have a crystal diameter greater than 2 μm as measured by the SEM, and wherein greater than 50 wt% of the crystalline molecular sieve have a crystal thickness of 0.04 μm as measured by the SEM.