mhurhangee/ep-ind-claims huggingface dataset:
A display system comprising a liquid crystal display, LCD, with capacitive touch sensors and a controller, the LCD comprising: at least one electrode structure each representing an alphanumerical symbol or a graphic symbol; at least two adjacent capacitive touch sensors (210, 215; 230, 235) associated with each alphanumerical symbol or each graphic symbol and arranged above a display electrode layer of the LCD comprising the at least one electrode structure, wherein the at least two adjacent capacitive touch sensors (210, 215; 230, 235) substantially cover the electrode structure representing their associated alphanumerical or graphic symbol (110, 130), wherein the controller is connected to each of the capacitive touch sensors (210, 215; 230, 235) and configured to evaluate signals provided by the capacitive touch sensors (210, 215; 230, 235) so as to detect a sliding gesture across the respective alphanumerical or graphic symbol (110, 130). at least one electrode structure each representing an alphanumerical symbol or a graphic symbol; at least two adjacent capacitive touch sensors (210, 215; 230, 235) associated with each alphanumerical symbol or each graphic symbol and arranged above a display electrode layer of the LCD comprising the at least one electrode structure, wherein the at least two adjacent capacitive touch sensors (210, 215; 230, 235) substantially cover the electrode structure representing their associated alphanumerical or graphic symbol (110, 130), wherein the controller is connected to each of the capacitive touch sensors (210, 215; 230, 235) and configured to evaluate signals provided by the capacitive touch sensors (210, 215; 230, 235) so as to detect a sliding gesture across the respective alphanumerical or graphic symbol (110, 130).
A method of producing isoprene, the method comprising: a) culturing cells comprising one or more heterologous nucleic acids encoding for isoprene synthase polypeptide under suitable conditions for production of isoprene, wherein a gas is added at a gas sparging rate between 0.01 vvm to 2 vvm; and b) producing isoprene, wherein the cells produce greater than 400 nmole/g wcm /hour of isoprene, and wherein the carbon dioxide evolution rate of the cells is greater than 1 x 10 -18 mmol/L/hour. a) culturing cells comprising one or more heterologous nucleic acids encoding for isoprene synthase polypeptide under suitable conditions for production of isoprene, wherein a gas is added at a gas sparging rate between 0.01 vvm to 2 vvm; and b) producing isoprene, wherein the cells produce greater than 400 nmole/g wcm /hour of isoprene, and wherein the carbon dioxide evolution rate of the cells is greater than 1 x 10 -18 mmol/L/hour.
Heating/cooling system manifold comprising a sleeve having two openings (3, 4) in a wall, at least one arrangement of functional parts within the sleeve, and fixing means for mounting the functional parts to the sleeve, the fixing means comprising a first part and a second part, and having a connection geometry for aligning the first part and the second part of the fixing means in relation to each other, characterized in that the connection geometry is arranged on an outside of the sleeve and a space between the first part and the second part of the fixing means is arranged within the sleeve
A method for making electronic cigarette cartridges, the cartridges comprising a casing housing at least one component for retaining and containing a flavouring substance and an electric module, at least partly positioned inside the casing, comprising one or more electronic elements designed for heating the retaining and containing component; the method comprising a step of making the cartridges along a dedicated production line; the step of making the cartridges comprising a step of making the casing by assembling one or more components (4, 11, 25) along a first stretch of the production line and a step of making the electric module by assembling one or more electronic elements along a second stretch of the production line; the steps of making the casing and the electric module being steps which are synchronized and independent relative to one another; once the steps of making the casing and the electric module are complete, the method comprising a step of assembling the casing with a respective electric module to obtain the finished cartridge along a shared third stretch of the production line.
An isolated CD8 + Treg cell population, wherein the Treg population consists of cells having signatures for i) identifying that the T-cells are CD8 + regulatory Tcells, wherein the signature is CD8 +, CD8 + CD122 +, CD8 + Y n, or CD8 + CD122 + Y n, ii) identifying that the Treg cells are mucosal tissue type tropic, i.e. they can migrate to the diseased mucosal tissue, wherein the signature is α4β7 +, α4 + β7 +, α4β7 + X n or α4 + β7 + X n, iii) optionally identifying that the Treg cells are tropic with respect to the diseased mucosal tissue, i.e. they are homing cells, wherein the signature is CCR9 + or CCR9 + X n, iv) identifying that the Treg cells are emigrant cells, i.e. they originate from the target mucosal tissue, wherein the signature is CD62L -, X n, Y n, X n Y n, CD62L - X n, CD62L - Y n, or CD62L - X n Y n, and v) optionally identifying that the Treg cells are capable of being retained in the target mucosal tissue, wherein the signature is α4 + αE + β7 hi and wherein X is a signature indicating that the CD8 + Tregs can localize, have emigrated from, or are marked for preferential retention in the specific part of the gastrointestinal tract that is diseased, and where Y is the signature indicating immunosuppressive regulatory function, wherein n indicates that one or more X or Y signatures may be present,wherein the isolated CD8 + Treg cell population has T-cell receptor clonal diversity restricted to clonotypes specific for antigens present in the mucosal tissue types to which the selected signatures relate. i) identifying that the T-cells are CD8 + regulatory Tcells, wherein the signature is CD8 +, CD8 + CD122 +, CD8 + Y n, or CD8 + CD122 + Y n, ii) identifying that the Treg cells are mucosal tissue type tropic, i.e. they can migrate to the diseased mucosal tissue, wherein the signature is α4β7 +, α4 + β7 +, α4β7 + X n or α4 + β7 + X n, iii) optionally identifying that the Treg cells are tropic with respect to the diseased mucosal tissue, i.e. they are homing cells, wherein the signature is CCR9 + or CCR9 + X n, iv) identifying that the Treg cells are emigrant cells, i.e. they originate from the target mucosal tissue, wherein the signature is CD62L -, X n, Y n, X n Y n, CD62L - X n, CD62L - Y n, or CD62L - X n Y n, and v) optionally identifying that the Treg cells are capable of being retained in the target mucosal tissue, wherein the signature is α4 + αE + β7 hi
A control method of a laundry machine having a tub, a drum accommodated in the tub, a motor configured to rotate the drum, and comprising a spinning cycle, the control method comprising: a sensing step configured to sense a rotation speed (rpm) of the motor while increasing a pulse duty of the motor during the spinning cycle; and a determining step configured to determine bubble generation inside the tub based on the sensed pulse duty and rotation speed, wherein the determining step determines bubble generation based on comparing an increasing rate of the pulse duty with an increasing rate of the rpm of the motor. a sensing step configured to sense a rotation speed (rpm) of the motor while increasing a pulse duty of the motor during the spinning cycle; and a determining step configured to determine bubble generation inside the tub based on the sensed pulse duty and rotation speed, wherein the determining step determines bubble generation based on comparing an increasing rate of the pulse duty with an increasing rate of the rpm of the motor.
A battery module, comprising: a plurality of batteries, a first end plate, and a second end plate, wherein the first end plate and the second end plate are respectively located on two sides of the plurality of batteries in a second direction; the first end plate is provided with a first main body portion and a first lug portion, wherein the first lug portion protrudes from the first main body portion along the second direction, and is provided with a first mounting hole; the second end plate is provided with a second main body portion and a second lug portion, wherein the second lug portion protrudes from the second main body portion along the second direction, and is provided with a second mounting hole; and an area of a lower surface, in a third direction, of the first lug portion is S 1, a distance from a central axis of the first mounting hole to a center line, in a first direction, of the battery module is d 1, an area of a lower surface, in the third direction, of the second lug portion is S 2, and a distance from a central axis of the second mounting hole to the center line, in the first direction, of the battery module is d 2, wherein d 1 > d 2, and S 1 < S 2. the first end plate is provided with a first main body portion and a first lug portion, wherein the first lug portion protrudes from the first main body portion along the second direction, and is provided with a first mounting hole; the second end plate is provided with a second main body portion and a second lug portion, wherein the second lug portion protrudes from the second main body portion along the second direction, and is provided with a second mounting hole; and an area of a lower surface, in a third direction, of the first lug portion is S 1, a distance from a central axis of the first mounting hole to a center line, in a first direction, of the battery module is d 1, an area of a lower surface, in the third direction, of the second lug portion is S 2, and a distance from a central axis of the second mounting hole to the center line, in the first direction, of the battery module is d 2, wherein d 1 > d 2, and S 1 < S 2.
Method for operating a set of at least two light dimmers, referred to as the first dimmer, which is preferably a master dimmer, and the second dimmer, which is preferably a slave dimmer, these being connected in parallel between a current source and a light source, the current source being able to deliver a current having a period, each dimmer comprising at least one transistor, preferably of the MOSFET type, in which method, in a first time interval, each of the transistors of the at least two dimmers is closed so as to turn on the light source, and in which, in a second time interval, each of the transistors of the at least two dimmers is opened so as to turn off the light source, the first time interval and the second time interval occurring for each current half-period, in a trailing-edge operating mode, for each current half-period, the second time interval follows the first time interval in the observed half-period, which method is characterized in that, starting from at least two consecutive cycles, namely a first cycle and a second cycle, in the first cycle, between the first time interval and the second time interval, the transistor of the first dimmer is opened after the opening of the transistor of the second dimmer, and in that, in the second cycle, between the first time interval and the second time interval, the transistor of the second dimmer is opened after the opening of the transistor of the first dimmer. the first time interval and the second time interval occurring for each current half-period, in a trailing-edge operating mode, for each current half-period, the second time interval follows the first time interval in the observed half-period, which method is characterized in that, starting from at least two consecutive cycles, namely a first cycle and a second cycle, in the first cycle, between the first time interval and the second time interval, the transistor of the first dimmer is opened after the opening of the transistor of the second dimmer, and in that, in the second cycle, between the first time interval and the second time interval, the transistor of the second dimmer is opened after the opening of the transistor of the first dimmer.
Composite granules comprising: a binder; and a metal-containing polymeric material comprising: a) a polymer comprising: i) 15 to 65 wt-% of a first monomeric unit that is of Formula, Formula, or a mixture thereof: ii) 30 to 85 wt-% of a second monomeric unit that is of Formula: and iii) 0 to 40 wt-% of a third monomeric unit that is of Formula: wherein each R 1 is independently hydrogen or an alkyl group; and each asterisk (*) in Formulas to indicates the attachment sight to another monomeric unit or to a terminal group in the polymeric material; and b) a divalent metal incorporated into the polymeric material, wherein the divalent metal is present in an amount equal to or at least 1.5 mmol per gram of the polymeric material wherein the divalent material is incorporated into the polymeric material by treating the polymeric material with a solution of a divalent metal salt dissolved in water. a binder; and a metal-containing polymeric material comprising: a) a polymer comprising: i) 15 to 65 wt-% of a first monomeric unit that is of Formula, Formula, or a mixture thereof: ii) 30 to 85 wt-% of a second monomeric unit that is of Formula: and iii) 0 to 40 wt-% of a third monomeric unit that is of Formula: wherein each R 1 is independently hydrogen or an alkyl group; and each asterisk (*) in Formulas to indicates the attachment sight to another monomeric unit or to a terminal group in the polymeric material; and b) a divalent metal incorporated into the polymeric material, wherein the divalent metal is present in an amount equal to or at least 1.5 mmol per gram of the polymeric material wherein the divalent material is incorporated into the polymeric material by treating the polymeric material with a solution of a divalent metal salt dissolved in water. a) a polymer comprising: i) 15 to 65 wt-% of a first monomeric unit that is of Formula, Formula, or a mixture thereof: ii) 30 to 85 wt-% of a second monomeric unit that is of Formula: and iii) 0 to 40 wt-% of a third monomeric unit that is of Formula: wherein each R 1 is independently hydrogen or an alkyl group; and each asterisk (*) in Formulas to indicates the attachment sight to another monomeric unit or to a terminal group in the polymeric material; and i) 15 to 65 wt-% of a first monomeric unit that is of Formula, Formula, or a mixture thereof: ii) 30 to 85 wt-% of a second monomeric unit that is of Formula: and iii) 0 to 40 wt-% of a third monomeric unit that is of Formula: wherein each R 1 is independently hydrogen or an alkyl group; and each asterisk (*) in Formulas to indicates the attachment sight to another monomeric unit or to a terminal group in the polymeric material; and b) a divalent metal incorporated into the polymeric material, wherein the divalent metal is present in an amount equal to or at least 1.5 mmol per gram of the polymeric material wherein the divalent material is incorporated into the polymeric material by treating the polymeric material with a solution of a divalent metal salt dissolved in water.
A process for producing a preform characterized in that the preform for vacuum assisted resin transfer molding is produced by using a forming-molding tool for vacuum assisted resin transfer molding of fiber reinforced plastics obtained by integrating a face plate part and a flat plate part for forming a hollow convex part, wherein a hole is placed in a region of the flat plate part which is surrounded by the face plate part forming the hollow convex part, and in which metallic piping as a flow path of a heating medium is integrated with the back surface of the face plate part by a thermally conductive material and a rubber cord is integrated with an outside of a region used for forming or molding in the flat plate part, wherein the thickness of the face plate part is 1 mm or more and 15 mm or less, wherein the diameter of the rubber cord is 10 mm or more and 100 mm or less, and wherein a resin inlet and a bleeding port of a matrix resin for vacuum assisted resin transfer molding are placed in the flat plate part between the convex part and the rubber cord through the following: placing step of placing on the forming-molding tool a laminate of which reinforcing fiber fabrics having thermoplastic and/or thermosetting resin on their surface are laminated; forming step of forming the laminate by evacuating an inside of sealed space after the whole laminate is covered with a transparent or translucent rubber sheet to seal the forming-molding tool; checking step of checking if the laminate has a defect, such as wrinkle, or not through the rubber sheet while atmospheric pressure is kept applying to the laminate by continuing evacuation; and heating and pressurizing step of bonding the reinforcing fiber fabrics through the thermoplastic and/or thermosetting resin on the surface of the reinforcing fiber fabrics by running a heating medium into the piping (4, 5) to heat and pressurize the laminate after being formed. placing step of placing on the forming-molding tool a laminate of which reinforcing fiber fabrics having thermoplastic and/or thermosetting resin on their surface are laminated; forming step of forming the laminate by evacuating an inside of sealed space after the whole laminate is covered with a transparent or translucent rubber sheet to seal the forming-molding tool; checking step of checking if the laminate has a defect, such as wrinkle, or not through the rubber sheet while atmospheric pressure is kept applying to the laminate by continuing evacuation; and checking step of checking if the laminate has a defect, such as wrinkle, or not through the rubber sheet while atmospheric pressure is kept applying to the laminate by continuing evacuation; and heating and pressurizing step of bonding the reinforcing fiber fabrics through the thermoplastic and/or thermosetting resin on the surface of the reinforcing fiber fabrics by running a heating medium into the piping (4, 5) to heat and pressurize the laminate after being formed.
Rotor for a reluctance machine, wherein the rotor has a magnetically soft element of cylindrical construction, wherein the magnetically soft element has clearances for configuring magnetic flux barriers (3, 4, 5), wherein all or part of the flux barriers (3, 4, 5) are divided by one or a plurality of webs, wherein the profile of the individual webs forms a solid line which in the radial direction subdivides the rotor into an inner rotor region and an outer rotor region, wherein a plurality of the flux barriers (3, 4, 5) of the outer rotor region are filled with an electrically conductive and magnetically nonconductive filler material, and that a short-circuit ring is in each case disposed on the end side of the rotor, wherein the short-circuit rings short at least two of the flux barriers (3, 4, 5) of the outer rotor region, characterized in that all flux barriers (3, 4, 5) extend in each case in a substantially arcuate manner so as to be symmetrical about the q-axis of a pole segment of the rotor.
An image processing method for splicing of non overlapping images received from a remote conference site on a display apparatus of a local conference site, comprising: receiving at least two channels of images transmitted from the remote conference site; comparing the width of a blind area with the sum of the widths of a left border and a right border of the display apparatus in the local conference site, characterized in that, the method further comprises: if the width of the blind area is greater than the sum of the widths of the left border and the right border of the display apparatus in the local conference site; calculating a difference between the width of the blind area and the sum of the widths of the left border and the right border of the display apparatus in the local conference site, using a half of the difference as a correction value of the at least two channels of images; loading a black band with a width that equals the correction value on each of adjacent edges of the at least two channels of images; and outputting the at least two channels of processed images separately to the display apparatuses in the local conference site for displaying. receiving at least two channels of images transmitted from the remote conference site; comparing the width of a blind area with the sum of the widths of a left border and a right border of the display apparatus in the local conference site, characterized in that, the method further comprises: if the width of the blind area is greater than the sum of the widths of the left border and the right border of the display apparatus in the local conference site; calculating a difference between the width of the blind area and the sum of the widths of the left border and the right border of the display apparatus in the local conference site, using a half of the difference as a correction value of the at least two channels of images; loading a black band with a width that equals the correction value on each of adjacent edges of the at least two channels of images; and outputting the at least two channels of processed images separately to the display apparatuses in the local conference site for displaying. if the width of the blind area is greater than the sum of the widths of the left border and the right border of the display apparatus in the local conference site; calculating a difference between the width of the blind area and the sum of the widths of the left border and the right border of the display apparatus in the local conference site, using a half of the difference as a correction value of the at least two channels of images; loading a black band with a width that equals the correction value on each of adjacent edges of the at least two channels of images; and outputting the at least two channels of processed images separately to the display apparatuses in the local conference site for displaying.
A compound of: a pharmaceutically-acceptable salt, hydrate, solvate, tautomer, optical isomer, or combination thereof, wherein: R 3 is selected from H, a substituted or unsubstituted hydrocarbon group, a substituted or unsubstituted heterogeneous group, a substituted or unsubstituted carbocyclic group, a substituted or unsubstituted heterocyclic group, substituted or unsubstituted aromatic, or a substituted or unsubstituted heteroaromatic; in Formula XF R 10 is from H, a substituted or unsubstituted hydrocarbon group, or a substituted or unsubstituted heterogeneous group; and in Formula XE R 10 is an unsubstituted C 1 alkyl group; wherein the substituted or unsubstituted heterogeneous group is a substituted or unsubstitued saturated or unsaturated chain of non-hydrogen member atoms comprising carbon atoms and at least one heteroatom. R 3 is selected from H, a substituted or unsubstituted hydrocarbon group, a substituted or unsubstituted heterogeneous group, a substituted or unsubstituted carbocyclic group, a substituted or unsubstituted heterocyclic group, substituted or unsubstituted aromatic, or a substituted or unsubstituted heteroaromatic; in Formula XF R 10 is from H, a substituted or unsubstituted hydrocarbon group, or a substituted or unsubstituted heterogeneous group; and in Formula XE R 10 is an unsubstituted C 1 alkyl group; wherein the substituted or unsubstituted heterogeneous group is a substituted or unsubstitued saturated or unsaturated chain of non-hydrogen member atoms comprising carbon atoms and at least one heteroatom.