mhurhangee/ep-ind-claims huggingface dataset:
A robotic surgical system comprising: a manipulator assembly having a base and a tool holder which moves relative to the base, the tool holder having a plurality of drive elements; a sterile drape covering at least a portion of the manipulator; a sterile tool having a proximal interface and a distal end effector, the distal end effector having a plurality of degrees of motion relative to the proximal interface, the distal end effector coupled to driven elements of the interface; and an adapter disposed adjacent the sterile drape between the holder and the interface, the adapter comprising a plurality of rotatable bodies, each rotatable body having a first surface that is driven by the drive elements of the tool holder and a second surface that drives the driven elements of the interface; wherein each of the rotatable bodies is rotatable about an axis, angular rotation of a rotatable body being unlimited when said rotatable body is disposed in a first axial position, angular rotation of a rotatable body being limited when said rotatable body is disposed in a second axial position distinct from the first axial position. a manipulator assembly having a base and a tool holder which moves relative to the base, the tool holder having a plurality of drive elements; a sterile drape covering at least a portion of the manipulator; a sterile tool having a proximal interface and a distal end effector, the distal end effector having a plurality of degrees of motion relative to the proximal interface, the distal end effector coupled to driven elements of the interface; and an adapter disposed adjacent the sterile drape between the holder and the interface, the adapter comprising a plurality of rotatable bodies, each rotatable body having a first surface that is driven by the drive elements of the tool holder and a second surface that drives the driven elements of the interface; wherein each of the rotatable bodies is rotatable about an axis, angular rotation of a rotatable body being unlimited when said rotatable body is disposed in a first axial position, angular rotation of a rotatable body being limited when said rotatable body is disposed in a second axial position distinct from the first axial position.
A system configured for measurement of the optical properties of spectacle lenses mounted in their frame, comprising: a source of light configured to transmit a light beam through a lens of the spectacles to be measured; an optical analyzing unit configured to analyze the light beam after transmission through said lens; a lens aligner disposed in the path of said light beam before said optical analyzing unit, said lens aligner defining a plane perpendicular to the path of said light beam; a mechanism (23, 25) configured to press said lens into position on said lens aligner; a frame gripper configured to grip the lenses of said spectacles; and a mechanical structure, characterized in that said mechanical structure comprises a journal and bush bearing (84, 89) configured to allow said frame gripper to perform roll motion, and a double pivot assembly comprising a base assembly to which said frame gripper is rotatably attached, said base assembly being attached at each of its sides by a first pivot joint to a pivot arm, said pivot arm on each side of said double pivot assembly being attached at an end remote from said first pivot joint by means of a second pivot joint (93A, 93B) to a mounting assembly connected to horizontal and vertical movement slides on said system, thereby allowing said frame gripper to perform both pitch motion and vertical motion, such that before clamping of said lens on said lens aligner, said frame gripper is configured to rotate said spectacles freely about both axes orthogonal to that parallel to the path of said light beam, and to allow vertical motion of said spectacles. a source of light configured to transmit a light beam through a lens of the spectacles to be measured; an optical analyzing unit configured to analyze the light beam after transmission through said lens; a lens aligner disposed in the path of said light beam before said optical analyzing unit, said lens aligner defining a plane perpendicular to the path of said light beam; a mechanism (23, 25) configured to press said lens into position on said lens aligner; a frame gripper configured to grip the lenses of said spectacles; and a mechanical structure, characterized in that said mechanical structure comprises a journal and bush bearing (84, 89) configured to allow said frame gripper to perform roll motion, and a double pivot assembly comprising a base assembly to which said frame gripper is rotatably attached, said base assembly being attached at each of its sides by a first pivot joint to a pivot arm, said pivot arm on each side of said double pivot assembly being attached at an end remote from said first pivot joint by means of a second pivot joint (93A, 93B) to a mounting assembly connected to horizontal and vertical movement slides on said system, thereby allowing said frame gripper to perform both pitch motion and vertical motion, such that before clamping of said lens on said lens aligner, said frame gripper is configured to rotate said spectacles freely about both axes orthogonal to that parallel to the path of said light beam, and to allow vertical motion of said spectacles.
A hinge device intended to be mounted on a first element, such as a door frame, and on a second element, such as a door, to enable pivoting of the two elements relative to each other, the hinge device having a first part, which is intended to be attached to the first element, and a second part, which is intended to be attached to the second element, the first part and the second part are rigidly connected to each other, the first part has a tubular first housing, whose centre axis defines a first hinge axis, the second part has a tubular second housing, whose centre axis defines a second hinge axis parallel to the first hinge axis, characterised in that the first housing accommodates two balls, which are located at either end of the housing, an axially displaceable locking member arranged axially inwardly of each ball, a compression spring arranged between and cooperating with each ball and the associated locking member, and an eccentric located between the two locking members and cooperating therewith, the second housing accommodates two balls, which are located at either end of the housing, an axially displaceable locking member arranged axially inwardly of each ball, a compression spring arranged between and cooperating with each ball and the associated locking member, and an eccentric located between the two locking members and cooperating therewith, each locking member (6a, 6b) comprises an axially outwardly extending lug (8a, 8b) designed to cooperate with the respective ball (5a, 5b), each eccentric (11a, 11b) being rotatably carried about a transverse axis in the respective housing (4a, 4b) and rotatable between an initial position, in which the two associated locking members (6a, 6b) are located in an axially inner position and the two associated balls (5a, 5b) are located in a position projecting slightly from the housing, in which position they are held biased by the respective compression spring (10a, 10b), and an active position, in which the two associated locking members (6a, 6b) are located in an axially outer position, in which the ends of the axially outwardly extending lugs (8a, 8b) of the locking members (6a, 6b) abut against the respective ball (5a, 5b) axially locking it in the projecting position, and the first part and the second part being intended, when the eccentric (11a, 11b) is in the initial position, to be inserted in a recess (20a, 20b) in the first and second elements (3a, 3b), respectively, such that the balls (5a, 5b) thereof engage with mutually opposite depressions (19a, 19b) in the respective recess, the balls being axially lockable in the respective depression by rotating the eccentric into the active position.
Drive means for the polygon-compensated drive of a chain wheel, comprising - two traction drive wheels (1, 2), - a traction drive which runs via the latter and has an top span and a bottom span and - a tensioning means which acts on the traction drive, wherein the tensioning means comprises - a first non-round compensation wheel which can enter into contact with the top span, and - a second non-round compensation wheel which can enter into contact with the bottom span, characterized in that the tensioning means also comprises: - a single rocker which is configured to rotatably receive both the first compensation wheel and the second compensation wheel, wherein the rocker is pivotably mounted on a positionally-fixed bearing. - two traction drive wheels (1, 2), - a traction drive which runs via the latter and has an top span and a bottom span and - a tensioning means which acts on the traction drive, wherein the tensioning means comprises - a first non-round compensation wheel which can enter into contact with the top span, and - a second non-round compensation wheel which can enter into contact with the bottom span, characterized in that the tensioning means also comprises: - a single rocker which is configured to rotatably receive both the first compensation wheel and the second compensation wheel, wherein the rocker is pivotably mounted on a positionally-fixed bearing. - a first non-round compensation wheel which can enter into contact with the top span, and - a second non-round compensation wheel which can enter into contact with the bottom span, characterized in that the tensioning means also comprises: - a single rocker which is configured to rotatably receive both the first compensation wheel and the second compensation wheel, wherein the rocker is pivotably mounted on a positionally-fixed bearing. - a single rocker which is configured to rotatably receive both the first compensation wheel and the second compensation wheel, wherein the rocker is pivotably mounted on a positionally-fixed bearing.
A method for identifying hydroxymethylcytosine residues in a DNA sample comprising: synthesizing a DNA strand complementary to each parental DNA strand of a DNA sample with a methylated primer; contacting the DNA sample with a glucosyltransferase, wherein hydroxymethylcytosine residues have at least one glucose added generating glucosyl-hydroxymethylcytosine residues; contacting the DNA sample with at least one methyltransferase, wherein unmodified cytosine residues have a methyl group added, except for cytosine residues adjacent to glucosyl-hydroxymethylcytosine residues and on the opposite parental DNA strand which remain unmethylated; contacting the DNA sample with bisulfite, wherein unmodified cytosine residues are converted to uracil; preferentially amplifying the newly synthesized strands from the DNA sample with a forward and a methylated reverse primer generating amplification products; analyzing each of the amplification products to determine its sequence; and identifying the hydroxymethylcytosine residues in each of the amplification products through interpreting adjacent non-converted cytosine residues on the opposite DNA strand. synthesizing a DNA strand complementary to each parental DNA strand of a DNA sample with a methylated primer; contacting the DNA sample with a glucosyltransferase, wherein hydroxymethylcytosine residues have at least one glucose added generating glucosyl-hydroxymethylcytosine residues; contacting the DNA sample with at least one methyltransferase, wherein unmodified cytosine residues have a methyl group added, except for cytosine residues adjacent to glucosyl-hydroxymethylcytosine residues and on the opposite parental DNA strand which remain unmethylated; contacting the DNA sample with bisulfite, wherein unmodified cytosine residues are converted to uracil; preferentially amplifying the newly synthesized strands from the DNA sample with a forward and a methylated reverse primer generating amplification products; analyzing each of the amplification products to determine its sequence; and identifying the hydroxymethylcytosine residues in each of the amplification products through interpreting adjacent non-converted cytosine residues on the opposite DNA strand.
A fluid sensor assembly for sensing a fluid contained in a fluid tank of a vehicle, the fluid sensor assembly comprising: a housing unit having a base plate configured to be coupled to the fluid tank, the housing unit including a sample suction line and a sample return line configured to be in fluid communication with the fluid in the fluid tank; and characterized in a header assembly separably coupled to the base plate of the housing unit, the header assembly having a header housing separably coupled to the housing unit, the header housing configured to be located exteriorly of the fluid tank of the vehicle, the header assembly having a sample tank in fluid communication with the sample suction line and the sample return line, the sample tank configured to receive fluid from the fluid tank, the header assembly including a fluid quality sensor sensing a quality characteristic of the fluid in the sample tank for quality sampling of the fluid at a location remote from an interior of the fluid tank, wherein the fluid sensor assembly is configured such that when the base plate is coupled to the fluid tank and the header assembly, the sample suction line and the sample return line extend into the interior of the fluid tank and the header assembly is located exteriorly of the fluid tank. a housing unit having a base plate configured to be coupled to the fluid tank, the housing unit including a sample suction line and a sample return line configured to be in fluid communication with the fluid in the fluid tank; and characterized in a header assembly separably coupled to the base plate of the housing unit, the header assembly having a header housing separably coupled to the housing unit, the header housing configured to be located exteriorly of the fluid tank of the vehicle, the header assembly having a sample tank in fluid communication with the sample suction line and the sample return line, the sample tank configured to receive fluid from the fluid tank, the header assembly including a fluid quality sensor sensing a quality characteristic of the fluid in the sample tank for quality sampling of the fluid at a location remote from an interior of the fluid tank, wherein the fluid sensor assembly is configured such that when the base plate is coupled to the fluid tank and the header assembly, the sample suction line and the sample return line extend into the interior of the fluid tank and the header assembly is located exteriorly of the fluid tank.
A method for providing network connectivity to a remote device (206, 218, 220, 224) via aircrafts (202, 302), comprising: routing data to and from a network via a first uplink device on a first aircraft; routing data to and from the remote device (206, 218, 220, 224) via a first downlink and a first downlink device on the first aircraft at a specific segment along a route of the first aircraft; following determining that the first downlink with the remote device (206, 218, 220, 224) is about to be lost and determining a nearby second aircraft, establishing, by the first aircraft, a handoff connection between the first aircraft and the second aircraft, and sending, by the first aircraft, downlink information related to the first downlink to the second aircraft; establishing a second downlink between the remote device (206, 218, 220, 224) and a second downlink device of the second aircraft, the second aircraft comprising a second uplink device to connect the network; and migrating the routing of data to and from the remote device (206, 218, 220, 224) to the second downlink device and the second uplink device on the second aircraft from the first downlink device via the handoff connection. routing data to and from a network via a first uplink device on a first aircraft; routing data to and from the remote device (206, 218, 220, 224) via a first downlink and a first downlink device on the first aircraft at a specific segment along a route of the first aircraft; following determining that the first downlink with the remote device (206, 218, 220, 224) is about to be lost and determining a nearby second aircraft, establishing, by the first aircraft, a handoff connection between the first aircraft and the second aircraft, and sending, by the first aircraft, downlink information related to the first downlink to the second aircraft; establishing a second downlink between the remote device (206, 218, 220, 224) and a second downlink device of the second aircraft, the second aircraft comprising a second uplink device to connect the network; and migrating the routing of data to and from the remote device (206, 218, 220, 224) to the second downlink device and the second uplink device on the second aircraft from the first downlink device via the handoff connection.
Adhesive particularly for encapsulating an electronic assembly against permeants, comprising (a) at least one copolymer comprising at least isobutylene or butylene as comonomer kind and at least one comonomer kind which - considered as hypothetical homopolymer - has a softening temperature of greater than 40°C, (b) at least one kind of an at least partly hydrogenated tackifier resin, (c) at least one kind of a reactive resin based on acrylates or methacrylates having a softening temperature of less than 40°C, preferably less than 20°C, (d) at least one kind of a photoinitiator for initiating radical curing. (a) at least one copolymer comprising at least isobutylene or butylene as comonomer kind and at least one comonomer kind which - considered as hypothetical homopolymer - has a softening temperature of greater than 40°C, (b) at least one kind of an at least partly hydrogenated tackifier resin, (c) at least one kind of a reactive resin based on acrylates or methacrylates having a softening temperature of less than 40°C, preferably less than 20°C, (d) at least one kind of a photoinitiator for initiating radical curing.
A method for manufacturing fatty acid alkyl esters from tall oil containing sulphur compounds comprising the steps of: a) esterifying tall oil in at least one esterification reactor in the presence of an acidic catalyst and a C1 to C8 alcohol, to form a crude product stream comprising fatty acid alkyl esters and H 2 O, b) separating H 2 O and alcohol from the crude product stream formed in step a) to form a dehydrated fatty acid alkyl ester product stream, c) separating dehydrated fatty acid alkyl ester product stream from step b) into at least two product streams wherein one product stream is enriched in fatty acid alkyl esters and one product stream is enriched in higher boiling point neutral and resin acid components, and wherein a material comprising a saturated or monounsaturated fatty acid is added together with the tall oil in step a). a) esterifying tall oil in at least one esterification reactor in the presence of an acidic catalyst and a C1 to C8 alcohol, to form a crude product stream comprising fatty acid alkyl esters and H 2 O, b) separating H 2 O and alcohol from the crude product stream formed in step a) to form a dehydrated fatty acid alkyl ester product stream, c) separating dehydrated fatty acid alkyl ester product stream from step b) into at least two product streams wherein one product stream is enriched in fatty acid alkyl esters and one product stream is enriched in higher boiling point neutral and resin acid components, and wherein a material comprising a saturated or monounsaturated fatty acid is added together with the tall oil in step a).
An information processing device, comprising: a processing unit configured to perform a plurality of calculations to generate an authentication key, wherein the plurality of calculations includes: calculations using keys assigned to a plurality of areas of a recording medium, and either: a plurality of calculations using conversion values; or one calculation using conversion values to calculate a synthetic value followed by a further calculation using the synthetic value to calculate the authentication key; wherein each conversion value corresponds to one of the keys assigned to a plurality of areas of the recording medium, wherein the conversion value corresponding to each key is obtained by converting device-specific information using one of a plurality of conversion methods, the conversion method associated with the key. a processing unit configured to perform a plurality of calculations to generate an authentication key, wherein the plurality of calculations includes: calculations using keys assigned to a plurality of areas of a recording medium, and either: a plurality of calculations using conversion values; or one calculation using conversion values to calculate a synthetic value followed by a further calculation using the synthetic value to calculate the authentication key; wherein each conversion value corresponds to one of the keys assigned to a plurality of areas of the recording medium, wherein the conversion value corresponding to each key is obtained by converting device-specific information using one of a plurality of conversion methods, the conversion method associated with the key. calculations using keys assigned to a plurality of areas of a recording medium, and either: a plurality of calculations using conversion values; or one calculation using conversion values to calculate a synthetic value followed by a further calculation using the synthetic value to calculate the authentication key; a plurality of calculations using conversion values; or one calculation using conversion values to calculate a synthetic value followed by a further calculation using the synthetic value to calculate the authentication key; wherein each conversion value corresponds to one of the keys assigned to a plurality of areas of the recording medium, wherein the conversion value corresponding to each key is obtained by converting device-specific information using one of a plurality of conversion methods, the conversion method associated with the key.
A moisture exchange membrane module (40, 50) comprising a case (41, 42, 51) including at least two pairs of fluid inlets (45a, 46a, 53a, 54a) and fluid outlets (45b, 46b, 53b, 54b), and a moisture exchange membrane (44, 52) installed within the case (41, 42, 51) and disposed so that a dry fluid flowing between one pair of a fluid inlet (45a, 54a) and a fluid outlet (45b, 54b) does not directly contact a high-temperature and high-humidity fluid flowing between another pair of a fluid inlet (46a, 53a) and a fluid outlet (46b, 53b) in the operating state of the moisture exchange membrane module (40, 50), wherein, the fluid inlet (46a, 53a) to introduce the high-temperature and high-humidity fluid into the moisture exchange membrane module (40, 50) therethrough includes a diffuser for increasing the relative humidity of the high-temperature and high-humidity fluid, the diffuser includes a first inner diameter part disposed at an upstream region of a flow of the high-temperature and high-humidity fluid and a second inner diameter part disposed at an downstream region of the flow, the second inner diameter part has greater inner diameter than the first inner diameter part, and the moisture exchange membrane module (40, 50) further comprises an adiabatic member configured to thermally insulate the diffuser.