mhurhangee/patent-ind-claim-en huggingface dataset:
A drive system for an industrial tool, the drive system comprising: a cylinder including a first end, a second end, and a longitudinal axis extending therebetween; a first piston disposed within the cylinder and movable along the longitudinal axis ; a first rod coupled to the first piston and extending toward the first end of the cylinder; a second piston disposed within the cylinder and movable along the longitudinal axis ; and a second rod coupled to the second piston and extending toward the first end of the cylinder ; the drive system characterized by : the cylinder including a chamber having a first portion and a second portion , and fluid being transferred between the first portion and the second portion as one of the first piston and the second piston moves in an opposite direction relative to the other of the first piston and the second piston . a cylinder including a first end, a second end, and a longitudinal axis extending therebetween; a first piston disposed within the cylinder and movable along the longitudinal axis ; a first rod coupled to the first piston and extending toward the first end of the cylinder; a second piston disposed within the cylinder and movable along the longitudinal axis ; and a second rod coupled to the second piston and extending toward the first end of the cylinder ; the drive system characterized by : the cylinder including a chamber having a first portion and a second portion , and fluid being transferred between the first portion and the second portion as one of the first piston and the second piston moves in an opposite direction relative to the other of the first piston and the second piston .
A vane (62; 162; 262; 362; 462) for a gas turbine engine (10; 20) comprising: first and second endwalls each including a radially facing surface that bounds a gas path (GP); and an airfoil section extending in a radial direction (R) between the first and second endwalls , extending in an axial direction (X) between an airfoil leading edge and an airfoil trailing edge , and extending in a circumferential direction between pressure and suction sides , wherein the radially facing surface of each of the first and second endwalls is axially sloped such that the gas (GP) path converges in the axial direction (X) between the airfoil leading and trailing edges , and the first endwall includes an axisymmetric contour extending in the circumferential direction between the pressure and suction sides , wherein the first endwall extends in the circumferential direction between opposed mate faces , characterised in that : the axisymmetric contour is swept in the circumferential direction between the pressure and suction sides and respective ones of the opposed mate faces ; and the axisymmetric contour has a sinusoidal cross sectional geometry. first and second endwalls each including a radially facing surface that bounds a gas path (GP); and an airfoil section extending in a radial direction (R) between the first and second endwalls , extending in an axial direction (X) between an airfoil leading edge and an airfoil trailing edge , and extending in a circumferential direction between pressure and suction sides , wherein the radially facing surface of each of the first and second endwalls is axially sloped such that the gas (GP) path converges in the axial direction (X) between the airfoil leading and trailing edges , and the first endwall includes an axisymmetric contour extending in the circumferential direction between the pressure and suction sides , wherein the first endwall extends in the circumferential direction between opposed mate faces , the axisymmetric contour is swept in the circumferential direction between the pressure and suction sides and respective ones of the opposed mate faces ; and the axisymmetric contour has a sinusoidal cross sectional geometry.
A method of specifying the collection protocol for a blood collection device , the method comprising: specifying, in a blood collection control system , a first input to be scanned by the blood collection device; specifying, in the blood collection control system, a first time during a blood collection event for the blood collection device to request the first input; specifying, in the blood collection control system, a second input to be scanned by the blood collection device; specifying, in the blood collection control system, a second time during the blood collection event for the blood collection device to request the second input; compiling in the blood collection control system a blood collection protocol, the protocol operable subsequently on the blood collection device and configured to request from a user the first input at the first time and the second input at the second time; transmitting the blood collection protocol from the blood collection control system to the blood collection device. specifying, in a blood collection control system , a first input to be scanned by the blood collection device; specifying, in the blood collection control system, a first time during a blood collection event for the blood collection device to request the first input; specifying, in the blood collection control system, a second input to be scanned by the blood collection device; specifying, in the blood collection control system, a second time during the blood collection event for the blood collection device to request the second input; compiling in the blood collection control system a blood collection protocol, the protocol operable subsequently on the blood collection device and configured to request from a user the first input at the first time and the second input at the second time; transmitting the blood collection protocol from the blood collection control system to the blood collection device.
Lighting module for an automotive vehicle headlamp able to form a wide light beam containing a cutoff, which module is equipped with optical elements comprising an output lens and a plurality of concave reflectors associated with a deflector having a reflective face intended to deflect light beams generated by light sources located in the concavities of the reflectors , the output lens being a toric lens, and these optical elements being arranged so as to make the light beams generated by said light sources converge on points of focus before these light beams are transmitted through the output lens , characterized in that the reflectors are oriented such that segments joining the source and the point of focus of each reflector are convergent in the direction of the wide light beam .
A system for the production of glued plant particles, in particular from annual plants, for the production of panels, for example, fiberboard or chipboard, having at least one comminution device for comminuting plant starting material into plant particles that can be spread and having a gluing device for gluing the plant particles, characterized in that at least one first sifting device for separating silicate particles having a diameter of less than 50 μm from the plant particles is arranged between the comminution device and the gluing device .
Steering wheel for a motor vehicle, comprising - two optical finger navigation modules , - steering wheel electronics and - a communication device for data transmission between each finger navigation module and the steering wheel electronics, wherein - the communication device comprises a data bus (11, 12, 13; 11', 12', 13') designed as an SPI data bus, wherein the SPI data bus consists of two lines for data transmission and one line for clock transmission and - the steering wheel electronics are provided with a microprocessor having at least two SPI interfaces (28. 28'), wherein the first finger navigation module is connected via one of the SPI interfaces by means of first SPI data lines and the second finger navigation module is connected via another of the SPI interfaces by means of second SPI data lines . - two optical finger navigation modules , - steering wheel electronics and - a communication device for data transmission between each finger navigation module and the steering wheel electronics, wherein - the communication device comprises a data bus (11, 12, 13; 11', 12', 13') designed as an SPI data bus, wherein the SPI data bus consists of two lines for data transmission and one line for clock transmission and - the steering wheel electronics are provided with a microprocessor having at least two SPI interfaces (28. 28'), wherein the first finger navigation module is connected via one of the SPI interfaces by means of first SPI data lines and the second finger navigation module is connected via another of the SPI interfaces by means of second SPI data lines .
A fuel nozzle comprising; a burner tube having a central axis and a nozzle tip disposed therein; a flange having a first and a second fluid inlet fluidly connected to a first and a second flow passage , respectively; a stem having at least a first and a second generally axially extending flow channel fluidly connected to said at least first and second flow passages , respectively; a swirler having at least a first and a second radially extending premix passage , each said premix passage fluidly connected to said at least first and second generally axially extending flow channels , respectively; said flange and said stem each comprising a single component; characterized in that the flange is connected to said burner tube , and in that each said at least first and second generally axially extending flow channel is circumferentially disposed from each other.
A fastening device comprising: - a self-adhesive part having a self-adhesive surface and a connection surface that is located opposite to the self-adhesive surface, - a flexible strip , at least a part of which extends from the connection surface of the self-adhesive part, the flexible strip being connected to the self-adhesive part via a connector disposed in a zone on the connection surface that is facing a central zone of the self-adhesive surface so that a pulling force exerted on the flexible strip is distributed substantially uniformly over the self-adhesive surface, characterised in that the self-adhesive part comprises a segment of the flexible strip, a part of which is folded back, the segment being located at an end of the flexible strip and comprising a fold delimiting the folded part, an extension of the flexible strip at the location of the fold being able to be cut. - a self-adhesive part having a self-adhesive surface and a connection surface that is located opposite to the self-adhesive surface, - a flexible strip , at least a part of which extends from the connection surface of the self-adhesive part,
A protective helmet comprising: - a rigid outer shell ; - an inner structure located inside the rigid outer shell and adjustable to the head of a user, said inner structure comprising a basket and a band , the basket and the band being intended to be positioned respectively at the back and at the front of the head, the protective helmet being characterized in that the inner structure also comprises at least two separate shock-absorbing means secured to the band ; and in that it also comprises: - adjusting means of the inner structure ; the shock-absorbing means being displacement discs each comprising: - an outer ring ; - a central "bead" or tenon ; - a plurality of deformable arms , the two ends of which substantially tangentially connect the outer ring and radially connect the central bead ; the deformable arms having a length of at least 1.5 times the radius of the outer ring so as to be able to form, by deformation, a conical and elastic structure, the central bead of which is located at the top and is in contact with the rigid outer shell , and in that the displacement discs are further secured to the inner face of the rigid outer shell , such that in static position, the inner structure is separated from the rigid outer shell by an interval . - a rigid outer shell ; - an inner structure located inside the rigid outer shell and adjustable to the head of a user, said inner structure comprising a basket and a band , the basket and the band being intended to be positioned respectively at the back and at the front of the head, the protective helmet being characterized in that the inner structure also comprises at least two separate shock-absorbing means secured to the band ; - adjusting means of the inner structure ; - an outer ring ; - a central "bead" or tenon ; - a plurality of deformable arms , the two ends of which substantially tangentially connect the outer ring and radially connect the central bead ;
A wall panel joint comprising: at least two wall panels , wherein each wall panel having a front face and a back face , spaced apart from the front face , two side edges , where each side edge extends between the front face and the back face on each respective side of the faces (3; 4), and a top edge and a bottom edge ; wherein each side edge of the wall panel comprises a protrusion extending thereof and a groove adjacent to the protrusion , wherein at the end of the protrusion a heel is formed so that upon assembly of two adjacent wall panels the heel of one wall panel is inserted into the groove of the another adjacent wall panel and both assembled wall panels form a wedge space defined by the heels and protrusions of both assembled wall panels , wherein the wall panel joint further comprises a set of two wedges , wherein each wedge is in the form of elongated bar and one side edge of the wedge is inclined and the inclined one side edges of both wedges are opposed to each other so that upon assembly of the two adjacent wall panels both wedges can be inserted into the wedge space forming an interference fit between both wedges and both wall panels ; and wherein the wall panel is made of cross laminated timber (CLT) panel. at least two wall panels , wherein each wall panel having a front face and a back face , spaced apart from the front face , two side edges , where each side edge extends between the front face and the back face on each respective side of the faces (3; 4), and a top edge and a bottom edge ; wherein each side edge of the wall panel comprises a protrusion extending thereof and a groove adjacent to the protrusion , wherein at the end of the protrusion a heel is formed so that upon assembly of two adjacent wall panels the heel of one wall panel is inserted into the groove of the another adjacent wall panel and both assembled wall panels form a wedge space defined by the heels and protrusions of both assembled wall panels , wherein the wall panel joint further comprises a set of two wedges , wherein each wedge is in the form of elongated bar and one side edge of the wedge is inclined and the inclined one side edges of both wedges are opposed to each other so that upon assembly of the two adjacent wall panels both wedges can be inserted into the wedge space forming an interference fit between both wedges and both wall panels ; and wherein the wall panel is made of cross laminated timber (CLT) panel.
A compound which is (1r,1'R,4R)-4"-amino-5"-methyl-6'-[5-(prop-1-yn-1-yl)pyridin-3-yl]-3'H-dispiro[cyclohexane-1,2'-indene-1',2"-imidazol]-4-ol: or a pharmaceutically acceptable salt thereof.
A method for fabricating an integrated ceramic core-shell casting mold for a turbine blade or vane using direct light processing (DLP), comprising: (a) contacting a cured portion of a workpiece with a liquid ceramic photopolymer; (b) irradiating a portion of the liquid ceramic photopolymer adjacent to the cured portion through a window contacting the liquid ceramic photopolymer; (c) removing the workpiece from the uncured liquid ceramic photopolymer; and (d) repeating steps (a) - (c) until a ceramic casting mold is formed, the ceramic casting mold comprising: a core portion and a shell portion with at least one cavity between the core portion and the shell portion, the cavity adapted to define the shape of the turbine blade or vane upon casting and removal of the ceramic casting mold, and the core-shell casting mold includes integrated ceramic indentations between the core and shell of the mold which is utilized to form thin root components in the turbine blade or stator vane made from this mold, and the cavity defining a turbine blade or vane root component having a minimum dimension of less than 0.64 mm. (a) contacting a cured portion of a workpiece with a liquid ceramic photopolymer; (b) irradiating a portion of the liquid ceramic photopolymer adjacent to the cured portion through a window contacting the liquid ceramic photopolymer; (c) removing the workpiece from the uncured liquid ceramic photopolymer; and (d) repeating steps (a) - (c) until a ceramic casting mold is formed, the ceramic casting mold comprising: a core portion and a shell portion with at least one cavity between the core portion and the shell portion, the cavity adapted to define the shape of the turbine blade or vane upon casting and removal of the ceramic casting mold, and the core-shell casting mold includes integrated ceramic indentations between the core and shell of the mold which is utilized to form thin root components in the turbine blade or stator vane made from this mold, and the cavity defining a turbine blade or vane root component having a minimum dimension of less than 0.64 mm. a core portion and a shell portion with at least one cavity between the core portion and the shell portion, the cavity adapted to define the shape of the turbine blade or vane upon casting and removal of the ceramic casting mold, and the core-shell casting mold includes integrated ceramic indentations between the core and shell of the mold which is utilized to form thin root components in the turbine blade or stator vane made from this mold, and the cavity defining a turbine blade or vane root component having a minimum dimension of less than 0.64 mm.
A WhiB family transcriptional regulator WhcA variant consisting of an amino acid sequence represented by SEQ ID NO:1, wherein glycine, which is an amino acid corresponding to position 40 of SEQ ID NO:3, is substituted with aspartic acid.
A composition containing - 99.00-99.99 wt.-% of 1,4-butanediol, and - 1.0-50 wt.-ppm, as converted into a nitrogen atom, of an amide compound; wherein the amide compound is at least one of acetamide, N-methylacetamide and N-ethylacetamide. - 99.00-99.99 wt.-% of 1,4-butanediol, and - 1.0-50 wt.-ppm, as converted into a nitrogen atom, of an amide compound;
A method for the production of 3-buten-2-one comprising the enzymatic conversion of 4-hydroxy-2-butanone into 3-buten-2-one by making use of an enzyme catalyzing 4-hydroxy-2-butanone dehydration, wherein said enzyme catalyzing 4-hydroxy-2-butanone dehydration is (a) a 3-hydroxypropionyl-CoA dehydratase (EC 4.2.1.116), or (b) a 3-hydroxybutyryl-CoA dehydratase (EC 4.2.1.55). (a) a 3-hydroxypropionyl-CoA dehydratase (EC 4.2.1.116), or (b) a 3-hydroxybutyryl-CoA dehydratase (EC 4.2.1.55).
A hysteroscopic system, comprising: a hysteroscope having a main body coupled to an extension portion , wherein the extension portion is configured to extend transcervically to a patient's uterine cavity; first, second, and third channels extending from the main body to a distal end of the extension portion; a fluid source coupleable to a proximal end of the first channel; a pressure sensor coupleable to a proximal end of the second channel; and a tissue resecting probe configured for introduction through the third channel, wherein the third channel has a straight channel portion that extends longitudinally through the extension portion and a proximal channel portion that extends through the main body; characterized by : a central axis of the proximal channel portion of the third channel at a proximal face of the main body is offset from a hypothetical central axis of the straight channel portion of the third channel if extended to the proximal face of the main body; wherein the main body includes an angled extension portion with optics; wherein the hysteroscope includes: a fourth channel configured as an optics channel ; a light source coupled to a light connector on the main body; and a fifth channel configured as a light guide extending from the main body to the distal end of the extension portion. a hysteroscope having a main body coupled to an extension portion , wherein the extension portion is configured to extend transcervically to a patient's uterine cavity; first, second, and third channels extending from the main body to a distal end of the extension portion; a fluid source coupleable to a proximal end of the first channel; a pressure sensor coupleable to a proximal end of the second channel; and a tissue resecting probe configured for introduction through the third channel, wherein the third channel has a straight channel portion that extends longitudinally through the extension portion and a proximal channel portion that extends through the main body; a central axis of the proximal channel portion of the third channel at a proximal face of the main body is offset from a hypothetical central axis of the straight channel portion of the third channel if extended to the proximal face of the main body; wherein the main body includes an angled extension portion with optics; wherein the hysteroscope includes: a fourth channel configured as an optics channel ; a light source coupled to a light connector on the main body; and a fifth channel configured as a light guide extending from the main body to the distal end of the extension portion. a fourth channel configured as an optics channel ; a light source coupled to a light connector on the main body; and a fifth channel configured as a light guide extending from the main body to the distal end of the extension portion.
An OLED, comprising: a substrate , and a cathode , a light extracting layer , an organic light emitting layer , a hole transporting layer , a hole injecting layer and a reflective anode , wherein a surface of the light extracting layer has a periodic structure, characterized in that , the substrate comprises a n-type TFT, wherein the cathode , the light extracting layer , the organic light emitting layer , the hole transporting layer , the hole injecting layer and the reflective anode are arranged on the substrate in sequence from bottom to top, the cathode comprises ITO, the cathode is directly connected with a drain of the n-type TFT, and the light extracting layer is made from an undoped electron transporting material. a substrate , and a cathode , a light extracting layer , an organic light emitting layer , a hole transporting layer , a hole injecting layer and a reflective anode , wherein a surface of the light extracting layer has a periodic structure, characterized in that , the substrate comprises a n-type TFT, wherein the cathode , the light extracting layer , the organic light emitting layer , the hole transporting layer , the hole injecting layer and the reflective anode are arranged on the substrate in sequence from bottom to top, the cathode comprises ITO, the cathode is directly connected with a drain of the n-type TFT, and the light extracting layer is made from an undoped electron transporting material.
A process for obtaining Everolimus, said process comprising acts of: a) adding triflic anhydride to a mixture of Sirolimus, 2-(t-butyldimethylsilyl)ethylene glycol , and a base in an organic solvent, to obtain crude 40-O-[2-(t-butyldimethylsilyl)oxy]ethyl rapamycin in a one pot conversion; and b) treating and purifying the crude 40-0-[2-(t-butyldimethylsilyl)oxy] ethyl rapamycin to obtain Everolimus, wherein the treating is carried out using methanol and a cationic resin selected from the group comprising SK110, UBK558 and/or T42H. a) adding triflic anhydride to a mixture of Sirolimus, 2-(t-butyldimethylsilyl)ethylene glycol , and a base in an organic solvent, to obtain crude 40-O-[2-(t-butyldimethylsilyl)oxy]ethyl rapamycin in a one pot conversion; and b) treating and purifying the crude 40-0-[2-(t-butyldimethylsilyl)oxy] ethyl rapamycin to obtain Everolimus,