mhurhangee/ep-ind-claims huggingface dataset:
A light guide plate, comprising: a glass sheet with a front face having a width and a height, a back face opposite the front face, and a thickness between the front face and back face between 0.2 mm and 8 mm, forming four edges around the front and back faces, wherein the glass sheet comprises: between 65.79 mol % to 78.17 mol% SiO 2, between 2.94 mol% to 12.12 mol% Al 2 O 3, between 0 mol% to 11.16 mol% B 2 O 3, between 0 mol% to 2.06 mol% Li 2 O, between 3.52 mol% to 13.25 mol% Na 2 O, between 0 mol% to 4.83 mol% K 2 O, between 0 mol% to 3.01 mol% ZnO, between 0 mol% to 8.72 mol% MgO, between 0 mol% to 4.24 mol% CaO, between 0 mol% to 6.17 mol% SrO, between 0 mol% to 4.3 mol% BaO, between 0.07 mol% to 0.11 mol% SnO 2, and wherein the concentration of Fe is < 20 ppm. a glass sheet with a front face having a width and a height, a back face opposite the front face, and a thickness between the front face and back face between 0.2 mm and 8 mm, forming four edges around the front and back faces, wherein the glass sheet comprises: between 65.79 mol % to 78.17 mol% SiO 2, between 2.94 mol% to 12.12 mol% Al 2 O 3, between 0 mol% to 11.16 mol% B 2 O 3, between 0 mol% to 2.06 mol% Li 2 O, between 3.52 mol% to 13.25 mol% Na 2 O, between 0 mol% to 4.83 mol% K 2 O, between 0 mol% to 3.01 mol% ZnO, between 0 mol% to 8.72 mol% MgO, between 0 mol% to 4.24 mol% CaO, between 0 mol% to 6.17 mol% SrO, between 0 mol% to 4.3 mol% BaO, between 0.07 mol% to 0.11 mol% SnO 2, and wherein the concentration of Fe is < 20 ppm. between 65.79 mol % to 78.17 mol% SiO 2, between 2.94 mol% to 12.12 mol% Al 2 O 3, between 0 mol% to 11.16 mol% B 2 O 3, between 0 mol% to 2.06 mol% Li 2 O, between 3.52 mol% to 13.25 mol% Na 2 O, between 0 mol% to 4.83 mol% K 2 O, between 0 mol% to 3.01 mol% ZnO, between 0 mol% to 8.72 mol% MgO, between 0 mol% to 4.24 mol% CaO, between 0 mol% to 6.17 mol% SrO, between 0 mol% to 4.3 mol% BaO, between 0.07 mol% to 0.11 mol% SnO 2, and wherein the concentration of Fe is < 20 ppm.
A polymer composition consisting of: - at least 20 wt.% of a liquid crystal polymer ("LCP") formed from the polycondensation of the following monomers: terephthalic acid; 4,4'-biphenol; isophthalic acid; and 4-hydroxybenzoic acid; - from 10 wt.% to 40 wt.% of a flat glass fiber; and - boron nitride and zinc oxide, wherein the total concentration of boron nitride and zinc oxide is from 15 wt.% to 50 wt.%.; - optionally an additive selected from the group consisting of tougheners, plasticizers, colorants, pigments, antistatic agents, dyes, lubricants, thermal stabilizers, light stabilizers, nucleating agents and antioxidants; - wherein the relative concentration of boron nitride to zinc oxide expressed as weight of boron nitride in the polymer composition / weight of zinc oxide in the polymer composition is from 0.5 to 2. - at least 20 wt.% of a liquid crystal polymer ("LCP") formed from the polycondensation of the following monomers: terephthalic acid; 4,4'-biphenol; isophthalic acid; and 4-hydroxybenzoic acid; - from 10 wt.% to 40 wt.% of a flat glass fiber; and - boron nitride and zinc oxide, wherein the total concentration of boron nitride and zinc oxide is from 15 wt.% to 50 wt.%.; - optionally an additive selected from the group consisting of tougheners, plasticizers, colorants, pigments, antistatic agents, dyes, lubricants, thermal stabilizers, light stabilizers, nucleating agents and antioxidants; - wherein the relative concentration of boron nitride to zinc oxide expressed as weight of boron nitride in the polymer composition / weight of zinc oxide in the polymer composition is from 0.5 to 2.
Spatial 2D-map non-uniformity generation method for an image reproduction device using at least one calibration chart comprising a set of color patches P jj that are distributed over the entire 2D surface to compensate for non-uniformity, each of said color patches P ij being uniform in color and having a calibration color C ij, comprising: - imaging said at least one calibration chart using said image reproduction device, - measuring the color S m (l) within each patch of said at least one calibration chart that is imaged, - inferring a 2D-map of color non-uniformity correction factors from said color measurements S m ( l), characterized in that: - for each color patch, several color measurements S m ( l) are performed at different spatial locations within said color patch; - at least one spatial non-uniformity correction function A ( l) is obtained from the ratio of the gradient S' m ( l) of the color measurements S m ( l) over these different spatial locations in each color patch to the color measurements itself S m ( l) at these different spatial locations, - said 2D-map of color non-uniformity correction factors is derived and, as necessary, interpolated, from a set of values of said at least one spatial non-uniformity correction function A (l). - imaging said at least one calibration chart using said image reproduction device, - measuring the color S m (l) within each patch of said at least one calibration chart that is imaged, - inferring a 2D-map of color non-uniformity correction factors from said color measurements S m ( l), characterized in that: - for each color patch, several color measurements S m ( l) are performed at different spatial locations within said color patch; - at least one spatial non-uniformity correction function A ( l) is obtained from the ratio of the gradient S' m ( l) of the color measurements S m ( l) over these different spatial locations in each color patch to the color measurements itself S m ( l) at these different spatial locations, - said 2D-map of color non-uniformity correction factors is derived and, as necessary, interpolated, from a set of values of said at least one spatial non-uniformity correction function A (l).
An organic EL display comprising: - a first substrate having a thin film transistor formed thereon; - a second substrate having a light emitting region and a non-light emitting region, wherein the first and second substrates (31, 32) facing to each other; - a first electrode formed on the second substrate; - an assistant electrode formed on the first electrode in the non-light emitting region; - pairs of partition walls formed in the non-light emitting region of the second substrate and on the assistant electrode; - an insulation layer formed on sides of adjacent partition walls in which the sides face each other; - an organic light emitting layer formed on the first electrode in the light emitting region, wherein the organic light emitting layer is not formed between the adjacent partition walls; and - a second electrode formed on the organic light emitting layer and the partition walls, wherein the second electrode on the partition walls is electrically connected to the thin film transistor of the first substrate. - a first substrate having a thin film transistor formed thereon; - a second substrate having a light emitting region and a non-light emitting region, wherein the first and second substrates (31, 32) facing to each other; - a first electrode formed on the second substrate; - an assistant electrode formed on the first electrode in the non-light emitting region; - pairs of partition walls formed in the non-light emitting region of the second substrate and on the assistant electrode; - an insulation layer formed on sides of adjacent partition walls in which the sides face each other; - an organic light emitting layer formed on the first electrode in the light emitting region, wherein the organic light emitting layer is not formed between the adjacent partition walls; and - a second electrode formed on the organic light emitting layer and the partition walls, wherein the second electrode on the partition walls is electrically connected to the thin film transistor of the first substrate.
A force detection apparatus, comprising: a differential circuit; a first detection capacitor connected to the differential circuit; and a second detection capacitor connected to the differential circuit and configured to perform differential processing for a capacitance of the first detection capacitor to cancel an interference signal, wherein the first detection capacitor comprises a force detection electrode, and the second detection capacitor comprises a reference detection electrode, the force detection electrode and the reference detection electrode being arranged within a surface, such that the first detection capacitor and the second detection capacitor are simultaneously coupled to the interference signal causing interference to force detection, wherein the capacitance of the first detection capacitor is greater than a capacitance of the second detection capacitor for the force detection with an area of the reference detection electrode being less than an area of the force detection electrode, and the first detection capacitor is electrically connected to a first adjustable capacitor configured to adjust the capacitance of the first detection capacitor during the force detection, and the first adjustable capacitor is grounded, and/or the second detection capacitor is electrically connected to a second adjustable capacitor configured to adjust the capacitance of the second detection capacitor during the force detection, and the second adjustable capacitor is grounded. a differential circuit; a first detection capacitor connected to the differential circuit; and a second detection capacitor connected to the differential circuit and configured to perform differential processing for a capacitance of the first detection capacitor to cancel an interference signal, wherein the first detection capacitor comprises a force detection electrode, and the second detection capacitor comprises a reference detection electrode, the force detection electrode and the reference detection electrode being arranged within a surface, such that the first detection capacitor and the second detection capacitor are simultaneously coupled to the interference signal causing interference to force detection, wherein the capacitance of the first detection capacitor is greater than a capacitance of the second detection capacitor for the force detection with an area of the reference detection electrode being less than an area of the force detection electrode, and the first detection capacitor is electrically connected to a first adjustable capacitor configured to adjust the capacitance of the first detection capacitor during the force detection, and the first adjustable capacitor is grounded, and/or the second detection capacitor is electrically connected to a second adjustable capacitor configured to adjust the capacitance of the second detection capacitor during the force detection, and the second adjustable capacitor is grounded.
A carrier selection method, comprising: obtaining, by a second base station, load status information of a control channel of one or more first base stations on each carrier, wherein the load status information is used for determining a load amount of the control channel of each carrier; and selecting, by the second base station, according to the load status information, an operational carrier for the second base station or a primary cell carrier for a user equipment served by the second base station. obtaining, by a second base station, load status information of a control channel of one or more first base stations on each carrier, wherein the load status information is used for determining a load amount of the control channel of each carrier; and selecting, by the second base station, according to the load status information, an operational carrier for the second base station or a primary cell carrier for a user equipment served by the second base station.
Casting and rolling plant comprising a casting machine for casting a cast strip; shears for dividing up the cast strip into slabs of predetermined length; a temperature homogenisation device; and a Steckel rolling mill for rolling the slabs to form pre-strips of predetermined thickness; characterised in that the casting machine is constructed as a strip casting machine with a circulating cooled transport belt for casting the cast strip with a cast thickness between 10 and 20 millimetres; a multi-roller smoothing device is arranged between the outlet of the strip casting machine and the temperature homogenisation device; and a roller path for feeding the slabs directly to the Steckel rolling mill is provided between the outlet of the temperature homogenisation device and the Steckel rolling mill.
A method for gaining lateral access to a well via a lateral access passage (6, 10) of the well and for delivering sealant to the well, using a tool comprising a head portion and a fluid transmission conduit, wherein the head portion is configured to hold the fluid transmission conduit and wherein the fluid transmission conduit is for delivering fluid to the head portion, and a flexible conduit portion extending forwardly of the head portion, the method comprising: operating the tool to axially forwardly advance the head portion towards or in the lateral access passage and forwardly advance the flexible conduit portion along the lateral access passage; wherein, with continued advancement of the flexible conduit portion, its front end follows a path around a well annulus radially internally of the lateral access passage; and delivering sealant via the fluid transmission conduit to the head portion and via the flexible conduit portion into the well annulus at a location circumferentially spaced from the lateral access passage. operating the tool to axially forwardly advance the head portion towards or in the lateral access passage and forwardly advance the flexible conduit portion along the lateral access passage; wherein, with continued advancement of the flexible conduit portion, its front end follows a path around a well annulus radially internally of the lateral access passage; and delivering sealant via the fluid transmission conduit to the head portion and via the flexible conduit portion into the well annulus at a location circumferentially spaced from the lateral access passage.
A power connector suitable for retaining at least one electrical cable, the connector comprising: a body and a retaining member; and a first port for receiving an electrical cable and a second port or receiving an electrical cable, the first port and the second port being defined between the body and the retaining member, whereby movement of the retaining member towards the body reduces the size of the port to retain an electrical cable within the port (21, 22), wherein the first port defines a first direction for entry of an electrical cable into the connector and the second port defines a second direction for entry of an electrical cable into the connector and the first direction makes a non-zero angle with the second direction, and the retaining member is configured to allow independent tightening of the first port and second port about respective electrical cable. a body and a retaining member; and a first port for receiving an electrical cable and a second port or receiving an electrical cable, the first port and the second port being defined between the body and the retaining member, whereby movement of the retaining member towards the body reduces the size of the port to retain an electrical cable within the port (21, 22), wherein the first port defines a first direction for entry of an electrical cable into the connector and the second port defines a second direction for entry of an electrical cable into the connector and the first direction makes a non-zero angle with the second direction, and the retaining member is configured to allow independent tightening of the first port and second port about respective electrical cable.
Process for the production of furfural from pentoses and/or water soluble pentosans, said process comprising converting the said pentoses and/or water soluble pentosans in aqueous solution in a first step to furfural under acidic conditions and in a second step feeding the aqueous solution containing furfural obtained in the first step to the top of a distillation column to produce an aqueous, liquid downflow, in which liquid downflow at least one acidic material is present in an amount of at most 0.5 N and which liquid additionally contains at least one salt selected from the group of alkali, earth alkaline and ammonium halides, which column is heated at the bottom part thereof, using at least one reboiler to produce an upflow steam flow, recovering a water and furfural containing vapour product stream from the top of the said column, compressing the said vapour flow and condensing it on the hot side of the reboiler at the bottom of the said column to produce sufficient steam in the said bottom part of the column to produce the said upflow steam flow, and to recover an aqueous furfural containing solution as the condensate in the reboiler.
A light slab able to be integrated into a trafficable pavement, comprising in succession: - a first protective film, arranged on the front face of the light slab, made of a first material, - a first external encapsulating film, made of a second material, - an internal encapsulating film, made of a third material, - a second external encapsulating film, made of a fourth material, - a second protective film, arranged on the rear face of the light slab, made of a fifth material, one of the films, chosen among the first external encapsulating film, the internal encapsulating film and the second external encapsulating film, coating at least one active element adapted to emit light, each active element adapted to emit light comprising at least one light element on a support allowing it to be powered, the first material, the second material, the third material, the fourth material and the fifth material having Young's moduli E 1, E 2, E 3, E 4 and E 5, respectively, and coefficients of thermal expansion CTE 1, CTE 2, CTE 3, CTE 4 and CTE 5, respectively, E 1 and E 5 being equal or not different by more than 30%, E 2 and E 4 being equal or not different by more than 30%, E 1 > E 2 and E 4 < E 5, CTE 1 and CTE 5 being equal or not different by more than 30%, CTE 2 and CTE 4 being equal or not different by more than 30%, CTE 1 < CTE 2 and CTE 4 > CTE 5. - a first protective film, arranged on the front face of the light slab, made of a first material, - a first external encapsulating film, made of a second material, - an internal encapsulating film, made of a third material, - a second external encapsulating film, made of a fourth material, - a second protective film, arranged on the rear face of the light slab, made of a fifth material, one of the films, chosen among the first external encapsulating film, the internal encapsulating film and the second external encapsulating film, coating at least one active element adapted to emit light, each active element adapted to emit light comprising at least one light element on a support allowing it to be powered, the first material, the second material, the third material, the fourth material and the fifth material having Young's moduli E 1, E 2, E 3, E 4 and E 5, respectively, and coefficients of thermal expansion CTE 1, CTE 2, CTE 3, CTE 4 and CTE 5, respectively, E 1 and E 5 being equal or not different by more than 30%, E 2 and E 4 being equal or not different by more than 30%, E 1 > E 2 and E 4 < E 5, CTE 1 and CTE 5 being equal or not different by more than 30%, CTE 2 and CTE 4 being equal or not different by more than 30%, CTE 1 < CTE 2 and CTE 4 > CTE 5.
The compound 2-((3R,5R,6S)-5-(3-Chlorophenyl)-6-(4-chlorophenyl)-1-( -1-(isopropylsulfonyl)-3-methylbutan-2-yl)-3-methyl-2-oxopiperidin-3-yl)acetic acid, or a pharmaceutically acceptable salt thereof.
A power supply, comprising: a metal case, a power conversion module received inside the metal case and spaced apart from the metal case, the power conversion module comprising a circuit board; and an insulation connecting plate connected to the circuit board and the metal case respectively, the insulation connecting plate being isolated between at least a portion of the circuit board and at least a portion of the metal case; characterized in that one side of the insulation connecting plate includes a plurality of first blind holes formed thereon; another side of the insulation connecting plate includes a plurality of second blind holes formed thereon; wherein the power conversion module is fastened onto the plurality of first blind holes, and the metal case is fastened onto the plurality of second blind holes. a metal case, a power conversion module received inside the metal case and spaced apart from the metal case, the power conversion module comprising a circuit board; and an insulation connecting plate connected to the circuit board and the metal case respectively, the insulation connecting plate being isolated between at least a portion of the circuit board and at least a portion of the metal case; characterized in that one side of the insulation connecting plate includes a plurality of first blind holes formed thereon; another side of the insulation connecting plate includes a plurality of second blind holes formed thereon; wherein the power conversion module is fastened onto the plurality of first blind holes, and the metal case is fastened onto the plurality of second blind holes.
A headgear for use with a patient interface for supplying a pressurized flow of breathable gas to an airway of a patient, wherein the headgear is configured to secure the patient interface to a face of the patient, the headgear comprising: a main body (101, 101'), the main body comprising: an interface pocket disposed between a first end of the main body and a second end of the main body opposite the first end, wherein the pocket being configured to hold the patient interface and secure the patient interface against the face of the patient; and in that the main body also comprises: a first lateral strap portion (106A, 106B') extending from a first edge (103A, 103B) of the interface pocket to the first end of the main body and configured to be disposed against a first side of the head of the patient, the first lateral strap portion comprising a first attachment portion (117B, 117A) and a slot (107, 107A'); and a second lateral strap portion (106B, 106A') extending from a second edge of the interface pocket disposed opposite the first edge to the second end of the main body and configured to be disposed against a second side of the head of the patient, the second lateral strap portion being structured to pass through the slot in the first lateral strap portion and comprising a second attachment portion (117A, 117B), wherein the first end of the main body is structured to be coupled to the second attachment portion and the second end of the main body is structured to be coupled to the first attachment portion. an interface pocket disposed between a first end of the main body and a second end of the main body opposite the first end, wherein the pocket being configured to hold the patient interface and secure the patient interface against the face of the patient; and in that the main body also comprises: a first lateral strap portion (106A, 106B') extending from a first edge (103A, 103B) of the interface pocket to the first end of the main body and configured to be disposed against a first side of the head of the patient, the first lateral strap portion comprising a first attachment portion (117B, 117A) and a slot (107, 107A'); and a second lateral strap portion (106B, 106A') extending from a second edge of the interface pocket disposed opposite the first edge to the second end of the main body and configured to be disposed against a second side of the head of the patient, the second lateral strap portion being structured to pass through the slot in the first lateral strap portion and comprising a second attachment portion (117A, 117B),