mhurhangee/ep-ind-claims huggingface dataset:
A linear motion bearing assembly comprising: a ball retainer structure having at least a portion of a plurality of open axial ball tracks formed therein, the ball tracks including an open load bearing portion, an open return portion and turnarounds interconnecting the load bearing and return portions (62, 64); a plurality of bearing balls disposed in the ball tracks; a plurality of load bearing plates axially positioned adjacent the ball retainer structure, the load bearing plates effective to receive a load from the balls disposed in the load bearing portion of the ball tracks; a first outer housing sleeve effective to hold the ball retainer structure, the first outer housing sleeve having a shape of a hollow half-cylinder; and a second outer housing sleeve on top of the first outer housing sleeve and effective to hold the ball retainer structure, the second outer housing sleeve having a shape of a hollow half-cylinder, characterized in that the linear motion bearing assembly further comprises a bearing plate to housing intermediary load structure, the bearing plate to housing intermediary load structure comprising a plurality of pieces (154a, 154b, 154c, 154d, 154e) and defining at least two spaces in between the pieces, the bearing plate to housing intermediary load structure extending circumferentially around the first and second outer housing sleeve (200b, 200a). a ball retainer structure having at least a portion of a plurality of open axial ball tracks formed therein, the ball tracks including an open load bearing portion, an open return portion and turnarounds interconnecting the load bearing and return portions (62, 64); a plurality of bearing balls disposed in the ball tracks; a plurality of load bearing plates axially positioned adjacent the ball retainer structure, the load bearing plates effective to receive a load from the balls disposed in the load bearing portion of the ball tracks; a first outer housing sleeve effective to hold the ball retainer structure, the first outer housing sleeve having a shape of a hollow half-cylinder; and a second outer housing sleeve on top of the first outer housing sleeve and effective to hold the ball retainer structure, the second outer housing sleeve having a shape of a hollow half-cylinder,
A liquid ejection apparatus including a plurality of liquid ejection head units (210K, 210C, 210M, 210Y) that are configured to eject liquid onto a conveyed object being conveyed, the liquid ejection apparatus comprising: a roller for conveying the conveyed object at a speed in a conveying direction; a plurality of detection units (SENK, SENC, SENM, SENY), wherein each one of the plurality of detection units (SENK, SENC, SENM, SENY) is provided with respect to one of the plurality of liquid ejection head units (210K, 210C, 210M, 210Y) and is configured to detect a pattern on the object at a sensor installation position; and a control unit configured to control the plurality of liquid ejection head units (210K, 210C, 210M, 210Y) to eject liquid at a timing based on a plurality of the detection results of a plurality of the detection units (SENK, SENC, SENM, SENY), wherein each of the landing points of the plurality of the liquid ejection head unit (210K, 210C, 210M, 210Y) is located downstream relative to the sensor installation position of the detection units (SENK, SENC, SENM, SENY) which output the detection result, characterized in that the control unit is configured to determine a position of the conveyed object based on a first detection result of a first detection unit which is one of the plurality of detections units (SENK, SENC, SENM) and a second detection result of a second detection unit (SENC, SENM, SENY) which is located downstream of the first detection unit and to determine the timing of liquid ejection of the liquid ejection head unit (210C, 210M, 210Y) corresponding to the second detection unit based on the determined position of the object. a roller for conveying the conveyed object at a speed in a conveying direction; a plurality of detection units (SENK, SENC, SENM, SENY), wherein each one of the plurality of detection units (SENK, SENC, SENM, SENY) is provided with respect to one of the plurality of liquid ejection head units (210K, 210C, 210M, 210Y) and is configured to detect a pattern on the object at a sensor installation position; and a control unit configured to control the plurality of liquid ejection head units (210K, 210C, 210M, 210Y) to eject liquid at a timing based on a plurality of the detection results of a plurality of the detection units (SENK, SENC, SENM, SENY), wherein each of the landing points of the plurality of the liquid ejection head unit (210K, 210C, 210M, 210Y) is located downstream relative to the sensor installation position of the detection units (SENK, SENC, SENM, SENY) which output the detection result, characterized in that the control unit is configured to determine a position of the conveyed object based on a first detection result of a first detection unit which is one of the plurality of detections units (SENK, SENC, SENM) and a second detection result of a second detection unit (SENC, SENM, SENY) which is located downstream of the first detection unit and to determine the timing of liquid ejection of the liquid ejection head unit (210C, 210M, 210Y) corresponding to the second detection unit based on the determined position of the object.
A communication system - comprising a plurality of FlexRay network nodes (FR1, FR2, FR3), by means of which respective user data packets are provided in an IP data packet format or Ethernet data packet format, wherein the IP data packet format or the Ethernet data packet format has, in each case, a plurality of bit positions, and - a FlexRay bus system, via the physical layer of which data are transmitted between the FlexRay network nodes (FR1, FR2, FR3), characterised in that the FlexRay network nodes (FR1, FR2, FR3) are designed in such a way that contents of the bit positions of the user data packets are, in each case, converted to corresponding signals of the physical layer of the FlexRay bus system without temporary storage in the form of FlexRay data frames. - comprising a plurality of FlexRay network nodes (FR1, FR2, FR3), by means of which respective user data packets are provided in an IP data packet format or Ethernet data packet format, wherein the IP data packet format or the Ethernet data packet format has, in each case, a plurality of bit positions, and - a FlexRay bus system, via the physical layer of which data are transmitted between the FlexRay network nodes (FR1, FR2, FR3),
A glass laminate structure comprising: an external glass sheet; an internal glass sheet; and wherein one or both of the glass sheets comprises SiO 2 + B 2 O 3 + Al 2 O 3 ≥ 86.5 mol.%. and R 2 O - RO - Al 2 O 3 < 5 mol.%, and wherein one or both of the glass sheets comprises: between 69-80 mol.% SiO 2; between at least 7 mol.% and 12 mol.% Al 2 O 3; between 2-10 mol.% B 2 O 3; between 0-5 mol.% ZrO 2, Li 2 O, MgO, ZnO and P 2 O 5; between 6-15 mol.% Na 2 O; between 0-3 mol.% K 2 O and CaO; and between 0-2 mol.% SnO 2. an external glass sheet; an internal glass sheet; and wherein one or both of the glass sheets comprises SiO 2 + B 2 O 3 + Al 2 O 3 ≥ 86.5 mol.%. and R 2 O - RO - Al 2 O 3 < 5 mol.%, and wherein one or both of the glass sheets comprises: between 69-80 mol.% SiO 2; between at least 7 mol.% and 12 mol.% Al 2 O 3; between 2-10 mol.% B 2 O 3; between 0-5 mol.% ZrO 2, Li 2 O, MgO, ZnO and P 2 O 5; between 6-15 mol.% Na 2 O; between 0-3 mol.% K 2 O and CaO; and between 0-2 mol.% SnO 2. between 69-80 mol.% SiO 2; between at least 7 mol.% and 12 mol.% Al 2 O 3; between 2-10 mol.% B 2 O 3; between 0-5 mol.% ZrO 2, Li 2 O, MgO, ZnO and P 2 O 5; between 6-15 mol.% Na 2 O; between 0-3 mol.% K 2 O and CaO; and between 0-2 mol.% SnO 2.
An RF antenna assembly operable to communicate with an associated RF device located at various positions about a heating hob disposed in an inner area, said antenna assembly comprising an antenna including a plurality of continuous, conductive antenna loops (70, 72) located about the inner area, and circuitry, characterized in that: said antenna loops (70, 72) are oriented to cooperatively surround said inner area, each of said loops (70, 72) having an inner section (82, 84) proximal to said inner area and defining a respective, enclosed RF communication region (94, 96) outboard of said inner loop section (82, 84) with respect to said inner area, said regions (94, 96) cooperatively defining a continuous RF communication zone outboard of and disposed about the inner area; said circuitry includes at least two conductive paths adapted for coupling with a signal generator, and said plurality of loops (70, 72) each having one terminal end connected to at least one of said conductive paths, and having a second terminal end connected to at least one other of said conductive paths, whereby said antenna loops (70, 72) are not connected in series. said antenna loops (70, 72) are oriented to cooperatively surround said inner area, each of said loops (70, 72) having an inner section (82, 84) proximal to said inner area and defining a respective, enclosed RF communication region (94, 96) outboard of said inner loop section (82, 84) with respect to said inner area, said regions (94, 96) cooperatively defining a continuous RF communication zone outboard of and disposed about the inner area; each of said loops (70, 72) having an inner section (82, 84) proximal to said inner area and defining a respective, enclosed RF communication region (94, 96) outboard of said inner loop section (82, 84) with respect to said inner area, said regions (94, 96) cooperatively defining a continuous RF communication zone outboard of and disposed about the inner area; said circuitry includes at least two conductive paths adapted for coupling with a signal generator, and said plurality of loops (70, 72) each having one terminal end connected to at least one of said conductive paths, and having a second terminal end connected to at least one other of said conductive paths, whereby said antenna loops (70, 72) are not connected in series.
A planar array antenna comprising: at least two adjacent first radiation arrays arranged along a first direction, wherein each first radiation array comprises at least one first radiation unit and at least one radiation unit pair, the first radiation unit and the radiation unit pair are disposed on an axis of the first radiation array, the radiation unit pair comprises at least two second radiation units, and the at least two second radiation units are symmetric with respect to the axis of the first radiation array; wherein the first radiation units and the radiation unit pairs in two adjacent first radiation arrays are arranged in a staggered manner; and wherein each first radiation array comprises a first end and a second end relative to each other, the first ends of the first radiation arrays are at a same side, the radiation unit pair in one of the two adjacent first radiation arrays is disposed at the first end of the one first radiation array, and the radiation unit pair in the other of the two adjacent first radiation arrays is disposed at the second end of the other first radiation array. at least two adjacent first radiation arrays arranged along a first direction, wherein each first radiation array comprises at least one first radiation unit and at least one radiation unit pair, the first radiation unit and the radiation unit pair are disposed on an axis of the first radiation array, the radiation unit pair comprises at least two second radiation units, and the at least two second radiation units are symmetric with respect to the axis of the first radiation array; wherein the first radiation units and the radiation unit pairs in two adjacent first radiation arrays are arranged in a staggered manner; and wherein each first radiation array comprises a first end and a second end relative to each other, the first ends of the first radiation arrays are at a same side, the radiation unit pair in one of the two adjacent first radiation arrays is disposed at the first end of the one first radiation array, and the radiation unit pair in the other of the two adjacent first radiation arrays is disposed at the second end of the other first radiation array.
A positioning casing of a bone screw used to fit a screw body, comprising a securing base and an alignment casing, both of which are integrally configured and a screw body passage is formed therethrough, wherein: a through hole is formed at the bottom of the securing base and along the screw body passage with its diameter smaller than that of the spherical head of the screw body; the wall of the securing base has two openings opposite to each other and open to the top of the securing base such that a first passage passing through the securing base is formed between the openings and laterally passes through the securing base; the alignment casing has a wall portion and a volume reduced portion; an elongated opening is formed on the wall portion and communicates with one of the openings; said volume reduced portion is a portion with part of the wall removed and thus receding from the outer surface of the securing base and a guide opening formed in the volume reduced portion which communicates with the other openings; and a first easy breaking portion is formed between the alignment casing and the securing base to facilitate the removal of the alignment casing from the positioning casing, wherein a plurality of alignment openings (221, 222) are formed at the wall portion of the alignment casing at the distal end from the securing base, characterized in that a second notch is formed slightly below the alignment openings (221, 222) and around the middle portion of the alignment casing such that the portion with the alignment openings (221, 222) can be broken. a through hole is formed at the bottom of the securing base and along the screw body passage with its diameter smaller than that of the spherical head of the screw body; the wall of the securing base has two openings opposite to each other and open to the top of the securing base such that a first passage passing through the securing base is formed between the openings and laterally passes through the securing base; the alignment casing has a wall portion and a volume reduced portion; an elongated opening is formed on the wall portion and communicates with one of the openings; said volume reduced portion is a portion with part of the wall removed and thus receding from the outer surface of the securing base and a guide opening formed in the volume reduced portion which communicates with the other openings; and
A valve body comprising: a first opening centered on a central axis (Ac) of the valve body; a second opening centered on the central axis (Ac); a gallery disposed between the first and second openings (12, 14) for accommodating a trim assembly, the gallery comprising a cylindrical space positioned on a gallery axis (Ag) that is perpendicular to the central axis (Ac); a first flow conduit portion extending between the first opening and a side opening of the gallery; and a second flow conduit portion extending between the second opening and a bottom opening of the gallery, the second flow conduit portion including a lower cavity sub-portion disposed immediately below the bottom opening and a side cavity sub-portion disposed between the lower cavity sub-portion and the second opening, the lower cavity sub-portion including an elbow conduit section and a straight cylindrical conduit section disposed between the elbow conduit section and the bottom opening of the gallery, the straight cylindrical conduit section extending away from the bottom opening of the gallery to the elbow conduit section and having a circular cross-section with a conduit diameter that is constant and equal to or less than a gallery diameter of the bottom opening of the gallery, the elbow conduit section extending away from the straight cylindrical conduit section along a curved axis to the side cavity sub-portion and including a circular cross-section along its entirety, characterized in that the second flow conduit portion has a circular cross-section along its entire length, the conduit diameter of the straight cylindrical conduit section is less than a diameter of the second opening, and a diameter of the cross-section of the second flow conduit portion gradually decreases from the diameter at the second opening to the conduit diameter at the straight cylindrical conduit section. a first opening centered on a central axis (Ac) of the valve body; a second opening centered on the central axis (Ac); a gallery disposed between the first and second openings (12, 14) for accommodating a trim assembly, the gallery comprising a cylindrical space positioned on a gallery axis (Ag) that is perpendicular to the central axis (Ac); a first flow conduit portion extending between the first opening and a side opening of the gallery; and a second flow conduit portion extending between the second opening and a bottom opening of the gallery, the second flow conduit portion including a lower cavity sub-portion disposed immediately below the bottom opening and a side cavity sub-portion disposed between the lower cavity sub-portion and the second opening,
A solar cell comprising: a crystalline silicon layer including a pn junction, the crystalline silicon layer including a first crystalline silicon layer of a first conductivity type and a second crystalline silicon layer of a second conductivity type formed on the first crystalline silicon layer to form the pn junction; an amorphous semiconductor layer formed on the first crystalline silicon layer, the amorphous semiconductor layer being made of hydrogenated amorphous silicon, a-Si:H; and a passivation layer formed on the second crystalline silicon layer; wherein the amorphous semiconductor layer contains a dopant of the same conductivity type as the first crystalline silicon layer; characterized in that: the amorphous semiconductor layer includes a first sublayer and a second sublayer, the second sublayer being formed on the first crystalline silicon layer, and the first sublayer being formed on the second sublayer, wherein the first sublayer and the second sublayer each have a thickness of 5nm; and the dopant concentration of the first sublayer of the amorphous semiconductor layer is 1 × 10 21 /cc and the dopant concentration of the second sublayer of the amorphous semiconductor layer is between 1×10 19 /cc and 1 × 10 21 /cc. a crystalline silicon layer including a pn junction, the crystalline silicon layer including a first crystalline silicon layer of a first conductivity type and a second crystalline silicon layer of a second conductivity type formed on the first crystalline silicon layer to form the pn junction; an amorphous semiconductor layer formed on the first crystalline silicon layer, the amorphous semiconductor layer being made of hydrogenated amorphous silicon, a-Si:H; and a passivation layer formed on the second crystalline silicon layer; wherein the amorphous semiconductor layer contains a dopant of the same conductivity type as the first crystalline silicon layer; characterized in that: the amorphous semiconductor layer includes a first sublayer and a second sublayer, the second sublayer being formed on the first crystalline silicon layer, and the first sublayer being formed on the second sublayer, wherein the first sublayer and the second sublayer each have a thickness of 5nm; and the dopant concentration of the first sublayer of the amorphous semiconductor layer is 1 × 10 21 /cc and the dopant concentration of the second sublayer of the amorphous semiconductor layer is between 1×10 19 /cc and 1 × 10 21 /cc. the amorphous semiconductor layer includes a first sublayer and a second sublayer, the second sublayer being formed on the first crystalline silicon layer, and the first sublayer being formed on the second sublayer, wherein the first sublayer and the second sublayer each have a thickness of 5nm; and the dopant concentration of the first sublayer of the amorphous semiconductor layer is 1 × 10 21 /cc and the dopant concentration of the second sublayer of the amorphous semiconductor layer is between 1×10 19 /cc and 1 × 10 21 /cc.
An antenna, comprising: a substrate-integrated waveguide including an upper conductor, the upper conductor having a plurality of apertures; and a plurality of subwavelength radiative elements coupled to the substrate-integrated waveguide, the plurality of subwavelength radiative elements including a plurality of unit cells each containing a conducting patch positioned above the apertures; and a plurality of lumped element circuits coupled to the subwavelength radiative elements and configured to adjust radiation characteristics of the subwavelength radiative elements. a substrate-integrated waveguide including an upper conductor, the upper conductor having a plurality of apertures; and a plurality of subwavelength radiative elements coupled to the substrate-integrated waveguide, the plurality of subwavelength radiative elements including a plurality of unit cells each containing a conducting patch positioned above the apertures; and a plurality of lumped element circuits coupled to the subwavelength radiative elements and configured to adjust radiation characteristics of the subwavelength radiative elements.
An assembly for a turbine comprising a plurality of sectors which are adjacent to one another, each sector comprising at least one connecting edge of composite material with a ceramic matrix (42, 43), each connecting edge comprising at least one groove or a housing (420, 421, 422) and a sealing tongue (150, 151, 152) present in each groove or housing, each sealing tongue having a laminated structure comprising a plurality of strips (101, 102, 103, 104, 105, 106, 107, 108, 109, 110), characterized in that the lower strip and the upper strip of the laminated structure each being formed by a film of monolithic ceramic material.
A sparger comprising: a base comprising a tubular member extending therefrom, the tubular member having an interior surface bounding a passage, the base being comprised of a flexible polymeric material; wherein the base further comprises a flange radially outwardly projecting from the tubular member; and a sparging sheet comprised of a flexible sheet of a gas permeable material secured to the flange; characterized in that: the flexible polymeric material has a durometer on a Shore A scale with a value of less than 70 and greater than 5; and the tubular member being resiliently flexible so that the tubular member can be folded over so as to kink the passage closed and then resiliently return to original configuration with no permanent deformation. a base comprising a tubular member extending therefrom, the tubular member having an interior surface bounding a passage, the base being comprised of a flexible polymeric material; wherein the base further comprises a flange radially outwardly projecting from the tubular member; and a sparging sheet comprised of a flexible sheet of a gas permeable material secured to the flange; characterized in that: the flexible polymeric material has a durometer on a Shore A scale with a value of less than 70 and greater than 5; and the tubular member being resiliently flexible so that the tubular member can be folded over so as to kink the passage closed and then resiliently return to original configuration with no permanent deformation. the flexible polymeric material has a durometer on a Shore A scale with a value of less than 70 and greater than 5; and the tubular member being resiliently flexible so that the tubular member can be folded over so as to kink the passage closed and then resiliently return to original configuration with no permanent deformation.