mhurhangee/ep-ind-claims huggingface dataset:
A feedback loop circuit comprising: a phase detector operable to generate an output signal (UP/DN) in response to a periodic input signal (INCK) and a delayed periodic signal (FBCK); a delay line comprising delay circuits (201A, 201B,..., 201H) coupled in series operable to delay the periodic input signal (INCK) to provide a delay to said delayed periodic signal (FBCK); and a control circuit operable to generate control signals (CT[1:Q]) for controlling delays based on the output signal (UP/DN) of the phase detector; characterized in that each delay circuit (201A, 201B,..., 201H) of the delay circuits comprises adjustable delay blocks (400; 601, 602,...; 901, 902, 903,...; 1101, 1102); the control circuit is operable to generate the control signals (CT[1:Q]) for controlling the delays of the adjustable delay blocks (400; 601, 602,...; 901, 902, 903,...; 1101, 1102); the control signals (CT[1:Q]) turn on transistors (502, 506) in different ones of said adjustable delay blocks (400; 601, 602,...; 901, 902, 903,...; 1101, 1102) in each of the delay circuits (201A, 201B,..., 201H) in response to a change in a first subset of the control signals (CT[1:Q]) that adds delay to the delayed periodic signal (FBCK) in order to average duty cycle distortion in the delayed periodic signal (FBCK) among the adjustable delay blocks (400; 601, 602,...; 901, 902, 903,...; 1101, 1102); and the adjustable delay blocks each invert a received signal to generate an inverted signal. a phase detector operable to generate an output signal (UP/DN) in response to a periodic input signal (INCK) and a delayed periodic signal (FBCK); a delay line comprising delay circuits (201A, 201B,..., 201H) coupled in series operable to delay the periodic input signal (INCK) to provide a delay to said delayed periodic signal (FBCK); and a control circuit operable to generate control signals (CT[1:Q]) for controlling delays based on the output signal (UP/DN) of the phase detector; characterized in that each delay circuit (201A, 201B,..., 201H) of the delay circuits comprises adjustable delay blocks (400; 601, 602,...; 901, 902, 903,...; 1101, 1102); the control circuit is operable to generate the control signals (CT[1:Q]) for controlling the delays of the adjustable delay blocks (400; 601, 602,...; 901, 902, 903,...; 1101, 1102); the control signals (CT[1:Q]) turn on transistors (502, 506) in different ones of said adjustable delay blocks (400; 601, 602,...; 901, 902, 903,...; 1101, 1102) in each of the delay circuits (201A, 201B,..., 201H) in response to a change in a first subset of the control signals (CT[1:Q]) that adds delay to the delayed periodic signal (FBCK) in order to average duty cycle distortion in the delayed periodic signal (FBCK) among the adjustable delay blocks (400; 601, 602,...; 901, 902, 903,...; 1101, 1102); and the adjustable delay blocks each invert a received signal to generate an inverted signal.
A cooperative training device, comprising: a flexible, annular mat having an outside edge, an inside edge, and an upper surface extending between the outside and inside edges; a plurality of pairs of foot straps (34, 44) attached to the upper surface of the mat, each of the pairs including an inner foot strap (34, 44) adjacent the inner edge and an outer foot strap (34, 44) radially spaced from the inner foot strap adjacent the outer edge of the mat; and a plurality of tethers (30, 40), each of the tethers having a fixed end secured to the upper surface of the mat adjacent a corresponding one of the outer foot straps and a free end, the tethers being adapted such that the free end can be grasped by at least one user (P, L) as the at least one user stands upright on the upper surface of the mat. a flexible, annular mat having an outside edge, an inside edge, and an upper surface extending between the outside and inside edges; a plurality of pairs of foot straps (34, 44) attached to the upper surface of the mat, each of the pairs including an inner foot strap (34, 44) adjacent the inner edge and an outer foot strap (34, 44) radially spaced from the inner foot strap adjacent the outer edge of the mat; and a plurality of tethers (30, 40), each of the tethers having a fixed end secured to the upper surface of the mat adjacent a corresponding one of the outer foot straps and a free end, the tethers being adapted such that the free end can be grasped by at least one user (P, L) as the at least one user stands upright on the upper surface of the mat.
A method for operating an in particular stationary Otto gas engine, wherein the at least one piston of the gas engine configured as a reciprocating piston internal-combustion engine is formed by a compression piston, in particular in such a manner that a compression gap height (h Q) at the TDC (top dead centre) is less than 4 mm; wherein the gas engine during the intake stroke is operated at a cylinder load which, according to "Thien", has a reduced swirl rate n D n m, red that is in a range from approximately 0.6 to approximately 1.7; wherein the gas engine is operated according to a Miller cycle, in particular in such a manner that the closing time of the at least one intake valve of the gas engine is in a crank angle range of approximately 50° of the crank angle before the BDC (bottom dead centre) to approximately 10° of the crank angle after the BDC; wherein the piston has an omega piston cavity, and the compression face of the piston on which the compression gap at the TDC is configured extends across a defined proportion of the piston cross-sectional area, wherein this defined compression face proportion is in a range from 55% to 85% of the piston cross-sectional area.
Carbonaceous substance-coated graphite particles comprising: graphite particles; and carbonaceous coatings covering at least part of surfaces of the graphite particles, wherein the carbonaceous substance-coated graphite particles have a maximum particle diameter of 30.0 to 90.0 μm, a pore volume V s of pores with a pore size of 7.8 to 36.0 nm is 0.009 to 0.164 cm 3 /g, and in a pore size distribution graph with the pore size being plotted on a horizontal axis and a dV/dP value obtained by differentiating the pore volume with the pore size being plotted on a vertical axis, a pore size P max with which the dV/dP value is maximized is 2.5 to 5.5 nm. wherein the carbonaceous substance-coated graphite particles have a maximum particle diameter of 30.0 to 90.0 μm, a pore volume V s of pores with a pore size of 7.8 to 36.0 nm is 0.009 to 0.164 cm 3 /g, and in a pore size distribution graph with the pore size being plotted on a horizontal axis and a dV/dP value obtained by differentiating the pore volume with the pore size being plotted on a vertical axis, a pore size P max with which the dV/dP value is maximized is 2.5 to 5.5 nm.
A vaccine vector which is a bacterial, viral or liposome-based vector, the vector comprising an antigenic polypeptide and an HMGB1 polypeptide each comprised within a transmembrane protein, wherein the antigenic polypeptide and the HMGB1 polypeptide are present on the surface of the vaccine vector, wherein the antigenic polypeptide is optionally an Influenza polypeptide and the Influenza polypeptide is optionally selected from an M2e, HA or NP Influenza polypeptide wherein the HMGB1 polypeptide is selected from SEQ ID NO: 18, SEQ ID NO: 29, SEQ ID NO: 30, and a homolog thereof having at least 95% sequence identity to at least one of SEQ ID NO: 18, 29 or 30.
Method for cooling a food product comprising at least the steps of: - placing the food product to be cooled into a cooling space of a cooling device; - estimating and/or calculating a cooling time needed to cool the food product from a pre-determined upper temperature limit to a pre-determined lower temperature limit, wherein estimating and/or calculating a cooling time needed to cool the food product comprises: determining and/or measuring an initial product temperature of the food product, estimating and/or calculating a time-dependent temperature curve of the product temperature starting from the initial product temperature, and estimating and/or calculating the cooling time from the pre-determined upper temperature limit to the pre-determined lower temperature limit according to the estimated and/or calculated temperature curve; - comparing the estimated and/or calculated cooling time with a pre-determined maximum cooling time; and - releasing and/or prompting an alert signal from an alert unit indicating the risk of the cooling time exceeding the pre-determined maximum cooling time if the estimated and/or calculated cooling time is larger than the pre-determined maximum cooling time. - placing the food product to be cooled into a cooling space of a cooling device; - estimating and/or calculating a cooling time needed to cool the food product from a pre-determined upper temperature limit to a pre-determined lower temperature limit, wherein estimating and/or calculating a cooling time needed to cool the food product comprises: determining and/or measuring an initial product temperature of the food product, estimating and/or calculating a time-dependent temperature curve of the product temperature starting from the initial product temperature, and estimating and/or calculating the cooling time from the pre-determined upper temperature limit to the pre-determined lower temperature limit according to the estimated and/or calculated temperature curve; determining and/or measuring an initial product temperature of the food product, estimating and/or calculating a time-dependent temperature curve of the product temperature starting from the initial product temperature, and estimating and/or calculating the cooling time from the pre-determined upper temperature limit to the pre-determined lower temperature limit according to the estimated and/or calculated temperature curve; - comparing the estimated and/or calculated cooling time with a pre-determined maximum cooling time; and - releasing and/or prompting an alert signal from an alert unit indicating the risk of the cooling time exceeding the pre-determined maximum cooling time if the estimated and/or calculated cooling time is larger than the pre-determined maximum cooling time.
Linear transport system for conveying an object, - the linear transport system comprising at least one stationary running rail and at least one movable conveying device, - the conveying device comprising a first guide unit with a first running roller, a second running roller and a first rotary bogie, - the first running roller and the second running roller being mounted rotatably on the first rotary bogie and bearing against the running rail, - the running rail having a rail longitudinal axis which runs in the longitudinal direction, - the first rotary bogie being mounted such that it can be rotated about a rotary bogie axis, the rotary bogie axis being arranged in an inclined manner with respect to the rail longitudinal axis, the first guide unit comprising a third running roller and a fourth running roller, the running rollers (145, 150, 180, 185) being supported on both sides of the running rail, characterized in that - the first guide unit comprises a second rotary bogie, - the third running roller and the fourth running roller being mounted rotatably on the second rotary bogie and bearing against the running rail, - the running rail being arranged between the first rotary bogie and the second rotary bogie, - the second rotary bogie being arranged so as to lie opposite the first rotary bogie, and being mounted such that it can be rotated about a further rotary bogie axis, - the further rotary bogie axis being arranged in an inclined manner with respect to the rail longitudinal axis. - the linear transport system comprising at least one stationary running rail and at least one movable conveying device, - the conveying device comprising a first guide unit with a first running roller, a second running roller and a first rotary bogie, - the first running roller and the second running roller being mounted rotatably on the first rotary bogie and bearing against the running rail, - the running rail having a rail longitudinal axis which runs in the longitudinal direction, - the first rotary bogie being mounted such that it can be rotated about a rotary bogie axis, the rotary bogie axis being arranged in an inclined manner with respect to the rail longitudinal axis, the first guide unit comprising a third running roller and a fourth running roller, the running rollers (145, 150, 180, 185) being supported on both sides of the running rail, characterized in that - the first guide unit comprises a second rotary bogie, - the third running roller and the fourth running roller being mounted rotatably on the second rotary bogie and bearing against the running rail, - the running rail being arranged between the first rotary bogie and the second rotary bogie, - the second rotary bogie being arranged so as to lie opposite the first rotary bogie, and being mounted such that it can be rotated about a further rotary bogie axis, - the further rotary bogie axis being arranged in an inclined manner with respect to the rail longitudinal axis.
A theatre construction comprising: a seating area for an audience, the seating area having a floor and being mounted for rotation about a vertical axis; and an annular floor area provided around the entire seating area floor, the seating area being arranged for rotation relative to the annular floor area, wherein at least a portion of the seating area extends over the annular floor area with headroom between the annular floor area and an underside of the seating area to provide a walkway for an audience member, characterized in that the headroom of the walkway is maintained as the seating area rotates relative to the entire annular floor area a seating area for an audience, the seating area having a floor and being mounted for rotation about a vertical axis; and an annular floor area provided around the entire seating area floor, the seating area being arranged for rotation relative to the annular floor area, wherein at least a portion of the seating area extends over the annular floor area with headroom between the annular floor area and an underside of the seating area to provide a walkway for an audience member, characterized in that the headroom of the walkway is maintained as the seating area rotates relative to the entire annular floor area
Method for machining the end region of a plastic profile, in particular a profile for the manufacture of a door or window frame, with a device for machining the end region of a plastic profile, in particular a profile for the manufacture of a door or window frame, wherein the device has a supporting surface for the profile and a holding device for the profile, by means of which the profile is held on the supporting surface, wherein the holding device has at least one connecting element which cooperates in a holding manner with an outer profile web (21, 22) of the profile, characterised by the sequence of the following steps: - Placing a plastic profile to be processed on a support surface - relative positioning of the holding device against the open end region of the profile in such a way that the connecting element of the holding device comes into holding engagement with the outer profile web (21, 22). - Placing a plastic profile to be processed on a support surface - relative positioning of the holding device against the open end region of the profile in such a way that the connecting element of the holding device comes into holding engagement with the outer profile web (21, 22).
Fluid dispenser comprising a pump mechanism that can be actuated by an actuation mechanism and is arranged in a dispenser housing, and a discharge portion that projects from the dispenser housing, a counting device that is coupled to the actuation mechanism detecting the actions of the pump mechanism, characterised in that the counting device is provided in the projecting discharge portion.
A touch-integrated display panel comprising: a substrate having an active area (A/A), which is in a central portion of the touch-integrated display panel and used to provide images, and a non-active area (N/A) outside the active area (A/A); a plurality of first and second pixels respectively comprising pixel electrodes and common voltage electrodes, the first pixels disposed in the active area (A/A) and the second pixels disposed in the non-active area (N/A); a touch electrode comprising the common voltage electrodes of a first pixels group in the plurality of first pixels that are electrically connected; and a shield electrode comprising the common voltage electrodes of the plurality of second pixels that are electrically connected, the shield electrode surrounding the active area (A/A). a substrate having an active area (A/A), which is in a central portion of the touch-integrated display panel and used to provide images, and a non-active area (N/A) outside the active area (A/A); a plurality of first and second pixels respectively comprising pixel electrodes and common voltage electrodes, the first pixels disposed in the active area (A/A) and the second pixels disposed in the non-active area (N/A); a touch electrode comprising the common voltage electrodes of a first pixels group in the plurality of first pixels that are electrically connected; and a shield electrode comprising the common voltage electrodes of the plurality of second pixels that are electrically connected, the shield electrode surrounding the active area (A/A).
A method for processing an authentication of a mobile terminal, characterized by comprising: receiving an image identity message from a mobile terminal, wherein the image identity message carries current image feature information and a user identifier of the mobile terminal; and searching image feature information which is saved previously in a database by the user identifier of the mobile terminal, performing a corresponding algorithm match between the current image feature information and the image feature information according to a preset security level, and performing an authentication on the mobile terminal based on the result of the match, wherein there are a plurality of security levels, each of which corresponding to a match algorithm, and the applied security level being preset by the mobile terminal; wherein the image identity message further comprises a security level requested by the mobile terminal, and the method further comprises: comparing the security level requested by the mobile terminal with the security level preset by the mobile terminal; and authorizing to the mobile terminal a running mode of the mobile terminal corresponding to the security level requested in the case that the security level requested is lower than or equal to the preset security level. receiving an image identity message from a mobile terminal, wherein the image identity message carries current image feature information and a user identifier of the mobile terminal; and searching image feature information which is saved previously in a database by the user identifier of the mobile terminal, performing a corresponding algorithm match between the current image feature information and the image feature information according to a preset security level, and performing an authentication on the mobile terminal based on the result of the match, wherein there are a plurality of security levels, each of which corresponding to a match algorithm, and the applied security level being preset by the mobile terminal; wherein the image identity message further comprises a security level requested by the mobile terminal, and the method further comprises: comparing the security level requested by the mobile terminal with the security level preset by the mobile terminal; and authorizing to the mobile terminal a running mode of the mobile terminal corresponding to the security level requested in the case that the security level requested is lower than or equal to the preset security level. comparing the security level requested by the mobile terminal with the security level preset by the mobile terminal; and authorizing to the mobile terminal a running mode of the mobile terminal corresponding to the security level requested in the case that the security level requested is lower than or equal to the preset security level.
A method for fractionating lignin, characterized in that the method comprises the following steps: (i) dissolving essentially pure lignin into a mixture consisting of organic solvent and water, wherein step (i) is performed at a temperature of 50 - 120 °C and wherein the essentially pure lignin is at least 70 % pure lignin; (ii) ultrafiltrating the mixture formed in step (i) through two or more filtration membranes having different cut-off values for producing a predetermined number of lignin fractions, wherein each fraction contains lignin with a molecular weight within a predetermined range; and (iii) subjecting at least one of the fractions formed in step (ii) to ion exchange treatment for reducing the content of inorganic components in lignin; wherein the lignin to be fractionated is selected from a group consisting of kraft lignin, lignin from alkaline pulping process, lignin from soda process, lignin from organosolv pulping, and any combination thereof. (i) dissolving essentially pure lignin into a mixture consisting of organic solvent and water, wherein step (i) is performed at a temperature of 50 - 120 °C and wherein the essentially pure lignin is at least 70 % pure lignin; (ii) ultrafiltrating the mixture formed in step (i) through two or more filtration membranes having different cut-off values for producing a predetermined number of lignin fractions, wherein each fraction contains lignin with a molecular weight within a predetermined range; and (iii) subjecting at least one of the fractions formed in step (ii) to ion exchange treatment for reducing the content of inorganic components in lignin;
A remote control unit for controlling a set of lighting devices (2a, 2b, 2c), comprising: - a processing unit arranged to determine one or more properties of signals for visible light communications; and - a transmitter arranged to transmit a control signal pertaining to said properties to said set of lighting devices, characterised in that, the determination of one or more properties of signals for visible light communications, is based on current settings of an image capturing unit. - a processing unit arranged to determine one or more properties of signals for visible light communications; and - a transmitter arranged to transmit a control signal pertaining to said properties to said set of lighting devices, characterised in that,
Flavoured therapeutic composition containing a clay as active ingredient, and other additives selected from colouring agents, sweetening agents, lubricants and glidants, and characterized in that - the clay is a dioctahedral smectite; and - the flavour is encapsulated. - the clay is a dioctahedral smectite; and - the flavour is encapsulated.