mhurhangee/patent-ind-claim-en huggingface dataset:
A plug-in connector part for an optical and/or electrical plug-in connection, wherein the plug-in connector part has a housing and the housing has a first housing part and at least one second housing part , and the first housing part and the second housing part are in a connected state screwed to one another by means of a detachable screw connection and a fixed toothing is fixed to the first housing part and a locking ring of the plug-in connector part and a pre-tensioning spring of the plug-in connector part are mounted on the second housing part , wherein the locking ring is displaceably mounted on the second housing part in directions parallel to a longitudinal direction of the second housing part and the pre-tensioning spring pre-tensions the locking ring in the direction towards an engagement position and the locking ring engages the fixed toothing in the engagement position, wherein the screw connection is, in the connected state, blocked in the engagement position of the locking ring to prevent unscrewing of the screw connection and wherein the screw connection is, in the connected state, rotatable in a release position of the locking ring , in which the locking ring is lifted from the fixed toothing against the pretensioning of the pre-tensioning spring , to unscrew the screw connection, characterised in that the locking ring has a grip surface , elongate in the longitudinal direction of the second housing part , and counter toothing , with teeth projecting from the grip surface in the direction towards the fixed toothing .
An avionics equipment assembly of an aircraft, comprising an avionics equipment mounting tray and a retainer assembly for securing a removable electronic unit in the avionics equipment mounting tray of an aircraft, the retainer assembly comprising: a latch including a base portion pivotally coupled to the avionics equipment mounting tray , and a handle portion projecting outward from the base portion, wherein the base portion includes a cam surface adapted to releasably contact the removable electronic unit ; a swing arm including a first end segment pivotally connected to the avionics equipment mounting tray at a first pivot axis , and an opposite second end portion pivotally connected to the base portion at a second pivot axis , wherein the first end segment is pivotally connected to the avionics equipment mounting tray; and a catch device carried between the latch and the avionics equipment mounting tray; wherein the latch is adapted to swing about the first pivot axis via the swing arm and between a swung clear position and a catch position, wherein the catch device is engaged when in the catch position; and wherein the latch is adapted to pivot about the second pivot axis and between a released state and a retained state when in the catch position; and wherein the cam surface is in biased contact with the removable electronic unit when in the retained state; and wherein the cam surface is not in contact with the removable electronic unit when in the released state, and the cam surface is in contact with the removable electronic unit when in the retained state. a latch including a base portion pivotally coupled to the avionics equipment mounting tray , and a handle portion projecting outward from the base portion, wherein the base portion includes a cam surface adapted to releasably contact the removable electronic unit ; a swing arm including a first end segment pivotally connected to the avionics equipment mounting tray at a first pivot axis , and an opposite second end portion pivotally connected to the base portion at a second pivot axis , wherein the first end segment is pivotally connected to the avionics equipment mounting tray; and a catch device carried between the latch and the avionics equipment mounting tray; wherein the latch is adapted to swing about the first pivot axis via the swing arm and between a swung clear position and a catch position, wherein the catch device is engaged when in the catch position; and wherein the latch is adapted to pivot about the second pivot axis and between a released state and a retained state when in the catch position; and wherein the cam surface is in biased contact with the removable electronic unit when in the retained state; and wherein the cam surface is not in contact with the removable electronic unit when in the released state, and the cam surface is in contact with the removable electronic unit when in the retained state.
Manufacturing process of a composite container combining a synthetic resin container body and a paper label , wherein: the container body forms a bottle shape made by forming a mouth part on the top end edge of a tube-shaped base part rising up from the outer circumferential edge of a bottom part via a shoulder part constricting in radius upwards; and the manufacturing process comprising: forming the composite container by the paper label being adhered to at least one of the top end edge outer circumferential surface and the bottom end edge outer circumferential surface of the base part of the container body by disposing the paper label in a mold, and biaxial stretch blow shaping a preform with a liquid as a pressurized medium wherein the paper label forms a paper tube, and wherein, in the mold, the position corresponding to the top end edge outer circumferential surface of the paper tube has a plurality of longitudinal grooves formed extending in a circumferential direction, and as a result of the biaxial stretch blow shaping, the paper tube and the container body have formed a plurality of ridges corresponding to the longitudinal grooves. the container body forms a bottle shape made by forming a mouth part on the top end edge of a tube-shaped base part rising up from the outer circumferential edge of a bottom part via a shoulder part constricting in radius upwards; and the manufacturing process comprising: forming the composite container by the paper label being adhered to at least one of the top end edge outer circumferential surface and the bottom end edge outer circumferential surface of the base part of the container body by disposing the paper label in a mold, and biaxial stretch blow shaping a preform with a liquid as a pressurized medium wherein the paper label forms a paper tube, and wherein, in the mold, the position corresponding to the top end edge outer circumferential surface of the paper tube has a plurality of longitudinal grooves formed extending in a circumferential direction, and as a result of the biaxial stretch blow shaping, the paper tube and the container body have formed a plurality of ridges corresponding to the longitudinal grooves.
A method of determining whether a subject has or is at risk of developing oral squamous cell carcinoma (OSCC), comprising: (a) determining the levels of at least two target polypeptides in a sample obtained from the subject, wherein the at least two target polypeptides are selected from the group consisting of ANXA2, HSPA5, KNG1 and MMP1; (b) calculating a risk score based on the levels of the at least two target polypeptides determined in the step (a) by logistic regression using the equation of: risk score = e a + b 1 X 1 + b 2 X 2 + b 3 X 3 + b 4 X 4 1 + e a + b 1 X 1 + b 2 X 2 + b 3 X 3 + b 4 X 4 wherein e is a mathematical constant that is the base of the natural logarithm; a is a constant value; X 1, X2, X3 and X4 respectively represent the concentrations of ANXA2, HSPA5, KNG1 and MMP1; and b 1, b 2, b 3 and b 4 respectively represent the coefficient of variation of ANXA2, HSPA5, KNG1 and MMP1; and (c) determining whether the subject has or is at risk of developing OSCC based on the risk score of the step (b). (a) determining the levels of at least two target polypeptides in a sample obtained from the subject, wherein the at least two target polypeptides are selected from the group consisting of ANXA2, HSPA5, KNG1 and MMP1; (b) calculating a risk score based on the levels of the at least two target polypeptides determined in the step (a) by logistic regression using the equation of: risk score = e a + b 1 X 1 + b 2 X 2 + b 3 X 3 + b 4 X 4 1 + e a + b 1 X 1 + b 2 X 2 + b 3 X 3 + b 4 X 4 wherein e is a mathematical constant that is the base of the natural logarithm; a is a constant value; X 1, X2, X3 and X4 respectively represent the concentrations of ANXA2, HSPA5, KNG1 and MMP1; and b 1, b 2, b 3 and b 4 respectively represent the coefficient of variation of ANXA2, HSPA5, KNG1 and MMP1; and (c) determining whether the subject has or is at risk of developing OSCC based on the risk score of the step (b).
A can printing apparatus comprising: a main printer having plural plate cylinders for printing different colors and performing printing onto side surfaces of cans(C); a can inspection machine inspecting a printing state after the printing by the main printer ; and a secondary printer performing additional printing to the side surfaces of the cans (C) after the printing by the main printer , wherein the can inspection machine includes a can rotation device which rotates cans (C), a can imaging device which takes images of the side surfaces of the cans (C) and an image processing device which processes the taken images, characterized in that the secondary printer includes a printing head which faces a side surface of a can (C) held by the can rotation device of the can inspection machine and a processing unit which gives an instruction of printing to the printing head based on a predetermined printing pattern and processing data of the image processing device of the can inspection machine , wherein the can imaging device includes a first camera for taking an image of the entire can (C), the image processing device includes an image inspection means for inspecting whether the image is correctly printed as compared with a master image by using the image taken by the first camera , a density measurement means for measuring densities in positions designated by respective colors by using the image taken by the first camera . a main printer having plural plate cylinders for printing different colors and performing printing onto side surfaces of cans(C); a can inspection machine inspecting a printing state after the printing by the main printer ; and a secondary printer performing additional printing to the side surfaces of the cans (C) after the printing by the main printer , wherein the can inspection machine includes a can rotation device which rotates cans (C), a can imaging device which takes images of the side surfaces of the cans (C) and an image processing device which processes the taken images, characterized in that the secondary printer includes a printing head which faces a side surface of a can (C) held by the can rotation device of the can inspection machine and a processing unit which gives an instruction of printing to the printing head based on a predetermined printing pattern and processing data of the image processing device of the can inspection machine , wherein the can imaging device includes a first camera for taking an image of the entire can (C), the image processing device includes an image inspection means for inspecting whether the image is correctly printed as compared with a master image by using the image taken by the first camera , a density measurement means for measuring densities in positions designated by respective colors by using the image taken by the first camera .
A lighting apparatus, comprising: a support; three or more surface light source panels (R, B) provided on the support; a gap between at least two adjacent surface light source panels (R, B) of the three or more surface light source panels (R, B); and a shade covering the gap, wherein three of the three or more surface light source panels (R, B) emit pieces of light having different colors, respectively, wherein the three surface light source panels comprise at least one OLED panel and at least one LED panel, wherein the lighting apparatus emits mixed white light having a color temperature of 2,000K to 15,000K by turning on some of or all the three surface light source panels (R, B). a support; three or more surface light source panels (R, B) provided on the support; a gap between at least two adjacent surface light source panels (R, B) of the three or more surface light source panels (R, B); and a shade covering the gap, wherein three of the three or more surface light source panels (R, B) emit pieces of light having different colors, respectively, wherein the three surface light source panels comprise at least one OLED panel and at least one LED panel, wherein the lighting apparatus emits mixed white light having a color temperature of 2,000K to 15,000K by turning on some of or all the three surface light source panels (R, B).
A tamping unit for tamping a track, having tamping tines which are designed for immersion into a ballast bed and can be set in vibrations by means of a vibration drive , wherein the vibration drive comprises a housing in which a shaft including an eccentric is arranged for rotation about a shaft axis and wherein a transmission element for transmitting a vibratory motion is mounted on the eccentric , characterized in that the eccentric is connected to the shaft in a rotation-locked and radially displaceable manner, and that the position of the eccentric relative to the shaft is adjustable in radial direction by means of an adjustment device .
Microlithographic arrangement, in particular using light in the extreme UV range (EUV), with - a supporting structure (109; 209; 309) for supporting an optical unit , the mass of which is in particular 4 t to 14 t, preferably 5 t to 10 t, more preferably 6 t to 8 t, wherein - the supporting structure (109; 209; 309) comprises a number of separate supporting units (110.1, 110.2, 110.3, 110.4; 210.1, 210.2; 310.1, 310.2) for supporting the optical unit , - each of the supporting units (110.1, 110.2, 110.3, 110.4; 210.1, 210.2; 310.1, 310.2) comprises an air bearing unit (111.1, 111.2, 111.3, 111.4), by way of which a supporting force which counteracts the weight of the optical unit can be generated, - the number of supporting units (110.1, 110.2, 110.3, 110.4; 210.1, 210.2; 310.1, 310.2) is at least four, characterized in that - at least two of the supporting units (110.1, 110.2, 110.3, 110.4; 210.1, 210.2; 310.1, 310.2) are coupled by way of a coupling device (112; 212; 312) to form a pair of supporting units in such a way that the coupling device (112; 212; 312) counteracts a deviation from a predeterminable ratio of the supporting forces of the two supporting units (110.1, 110.2; 210.1, 210.2; 310.1, 310.2) of the pair of supporting units. - a supporting structure (109; 209; 309) for supporting an optical unit , the mass of which is in particular 4 t to 14 t, preferably 5 t to 10 t, more preferably 6 t to 8 t, - the supporting structure (109; 209; 309) comprises a number of separate supporting units (110.1, 110.2, 110.3, 110.4; 210.1, 210.2; 310.1, 310.2) for supporting the optical unit , - each of the supporting units (110.1, 110.2, 110.3, 110.4; 210.1, 210.2; 310.1, 310.2) comprises an air bearing unit (111.1, 111.2, 111.3, 111.4), by way of which a supporting force which counteracts the weight of the optical unit can be generated, - the number of supporting units (110.1, 110.2, 110.3, 110.4; 210.1, 210.2; 310.1, 310.2) is at least four, characterized in that - at least two of the supporting units (110.1, 110.2, 110.3, 110.4; 210.1, 210.2; 310.1, 310.2) are coupled by way of a coupling device (112; 212; 312) to form a pair of supporting units in such a way that the coupling device (112; 212; 312) counteracts a deviation from a predeterminable ratio of the supporting forces of the two supporting units (110.1, 110.2; 210.1, 210.2; 310.1, 310.2) of the pair of supporting units.
An antenna assembly, comprising: an antenna that includes: a metal signal layer having a radiating surface ; and a feed port ; and a waveguide surrounding the antenna and configured to guide electromagnetic energy transmitted from the radiating surface in a direction away from the antenna; and a controller module connected to the feed port and configured to drive the antenna to transmit electromagnetic energy from the radiating surface; wherein the antenna, waveguide, and controller module are configured such that, when the controller module drives the antenna, the transmitted electromagnetic energy matches a reception characteristic of an implantable device and is sufficient for the implantable device to create one or more electrical pulses of sufficient amplitude to stimulate neural tissue of a patient, solely using electromagnetic energy received from the antenna, when the implantable device is located at least 10 centimeters away from the antenna; wherein the radiating surface is adjustable from a first spatial orientation to a second spatial orientation such that polarized electromagnetic energy received at a dipole antenna located on the implantable device in the patient is increased. an antenna that includes: a metal signal layer having a radiating surface ; and a feed port ; and a metal signal layer having a radiating surface ; and a feed port ; and a waveguide surrounding the antenna and configured to guide electromagnetic energy transmitted from the radiating surface in a direction away from the antenna; and a controller module connected to the feed port and configured to drive the antenna to transmit electromagnetic energy from the radiating surface; wherein the antenna, waveguide, and controller module are configured such that, when the controller module drives the antenna, the transmitted electromagnetic energy matches a reception characteristic of an implantable device and is sufficient for the implantable device to create one or more electrical pulses of sufficient amplitude to stimulate neural tissue of a patient, solely using electromagnetic energy received from the antenna, when the implantable device is located at least 10 centimeters away from the antenna; wherein the radiating surface is adjustable from a first spatial orientation to a second spatial orientation such that polarized electromagnetic energy received at a dipole antenna located on the implantable device in the patient is increased.
A system for providing alternative communication paths between nodes, the system comprising: first and second Ethernet switches; a third Ethernet switch connected between the first and second Ethernet switches as part of a Layer-2 network; and a fourth Ethernet switch connected between the first and second Ethernet switches as part of the Layer-2 network, characterized in that the alternative communication paths are Layer-2 communication paths and the first Ethernet switch is operative for transmitting Ethernet frames having a destination address of the second Ethernet switch, wherein a first group of the Ethernet frames are carried only over a first communication path from the first Ethernet switch to the second Ethernet via the third Ethernet switch, and wherein a second group of the frames that is non-overlapping with the first group are carried only over a second communication path that is different from the first communication path from the first Ethernet switch to the second Ethernet switch via the fourth Ethernet switch, and wherein the Ethernet frames are assigned to be carried over the first and second communication paths based on the respective results of a hashing function applied to their respective header values in an header field. first and second Ethernet switches; a third Ethernet switch connected between the first and second Ethernet switches as part of a Layer-2 network; and a fourth Ethernet switch connected between the first and second Ethernet switches as part of the Layer-2 network, characterized in that the alternative communication paths are Layer-2 communication paths and the first Ethernet switch is operative for transmitting Ethernet frames having a destination address of the second Ethernet switch, wherein a first group of the Ethernet frames are carried only over a first communication path from the first Ethernet switch to the second Ethernet via the third Ethernet switch, and wherein a second group of the frames that is non-overlapping with the first group are carried only over a second communication path that is different from the first communication path from the first Ethernet switch to the second Ethernet switch via the fourth Ethernet switch, and wherein the Ethernet frames are assigned to be carried over the first and second communication paths based on the respective results of a hashing function applied to their respective header values in an header field.
A method of manufacturing a coated contact lens comprising: a) providing a polymeric lens body comprising an acid group; b) coating the polymeric lens body with a first coating polymer comprising an amine group, wherein a first portion of the amine group ionically binds to the acid group, and c) contacting the first coating polymer with a second coating polymer comprising an amine-reactive group under conditions in which a second portion of the amine group on the first coating polymer covalently binds to the amine-reactive group. a) providing a polymeric lens body comprising an acid group; b) coating the polymeric lens body with a first coating polymer comprising an amine group, wherein a first portion of the amine group ionically binds to the acid group, and c) contacting the first coating polymer with a second coating polymer comprising an amine-reactive group under conditions in which a second portion of the amine group on the first coating polymer covalently binds to the amine-reactive group.