mhurhangee/ep-ind-claims huggingface dataset:
A camera module, comprising: a circuit board; an image sensor and a driver circuit that are located on the circuit board; an upper lens barrel and a lower lens barrel that are located on a side of the image sensor away from the circuit board; a connecting circuit, located on the lower lens barrel; and an adjustable lens, disposed inside between the upper lens barrel and the lower lens barrel, wherein the adjustable lens is electrically connected to the driver circuit through the connecting circuit, so as to deform under driving of the driver circuit to adjust a focal power of the camera module; characterised in that the camera module further comprises an anti-electrostatic assembly to provide electrostatic discharge, ESD, protection comprising insulation glue, the insulation glue covering the connecting circuit; and wherein the connecting circuit is embedded in the barrel wall of the lower lens barrel. a circuit board; an image sensor and a driver circuit that are located on the circuit board; an upper lens barrel and a lower lens barrel that are located on a side of the image sensor away from the circuit board; a connecting circuit, located on the lower lens barrel; and an adjustable lens, disposed inside between the upper lens barrel and the lower lens barrel, wherein the adjustable lens is electrically connected to the driver circuit through the connecting circuit, so as to deform under driving of the driver circuit to adjust a focal power of the camera module; characterised in that the camera module further comprises an anti-electrostatic assembly to provide electrostatic discharge, ESD, protection comprising insulation glue, the insulation glue covering the connecting circuit; and wherein the connecting circuit is embedded in the barrel wall of the lower lens barrel.
A method of manufacturing a balustrade, said method comprising: providing a plurality of posts; attaching the posts to a substrate, each with an upright orientation; and installing at least an intermediate rail by attaching it to the posts by providing attachment formations and press-fitting the posts, attachment formations and rail together, at least in part, wherein the attachment formations are assembled to grip one of the posts at a position intermediate its ends and to grip an end of at least one intermediate rail, wherein the attachment formations grip the post and the intermediate rail with a press fit; wherein the attachment formations include at least one clamp (48,56) and at least one lock and the step of attaching the intermediate rail to the post includes positioning the clamp (48,56) to grip the post and the end of the intermediate rail, characterised in that the step of attaching the intermediate rail to the post further includes sliding the lock onto the clamp (48,56) with a press fit, to lock the clamp (48,56) in gripping engagement with the post and the intermediate rail. providing a plurality of posts; attaching the posts to a substrate, each with an upright orientation; and installing at least an intermediate rail by attaching it to the posts by providing attachment formations and press-fitting the posts, attachment formations and rail together, at least in part, wherein the attachment formations are assembled to grip one of the posts at a position intermediate its ends and to grip an end of at least one intermediate rail, wherein the attachment formations grip the post and the intermediate rail with a press fit; wherein the attachment formations include at least one clamp (48,56) and at least one lock and the step of attaching the intermediate rail to the post includes positioning the clamp (48,56) to grip the post and the end of the intermediate rail, characterised in that the step of attaching the intermediate rail to the post further includes sliding the lock onto the clamp (48,56) with a press fit, to lock the clamp (48,56) in gripping engagement with the post and the intermediate rail.
An aircraft pressurized cabin door, comprising an exterior panel and a door structure which comprises: - two circumferential beams attached to the side edges of the door; - a plurality of longitudinal beams (5a, 5b) arranged substantially perpendicularly between the circumferential beams and attached to the exterior panel, each longitudinal beam (5a, 5b) extending from one circumferential beam to the other, and each longitudinal beam (5a, 5b) comprising: a first end coming into contact with one of the circumferential beams; and a second end which comes into contact with the other circumferential beam; each longitudinal beam (5a, 5b) being an open section whose opening faces the exterior panel, this opening being closed by the internal face of the exterior panel on which the longitudinal beam (5a, 5b) characterized in that is attached, at least one longitudinal beam is a variable-section longitudinal beam having, in two directions (Y, Z) perpendicular to the direction in which the longitudinal beam extends, a cross section that increases from the ends (B, M) of the beam towards the middle (H, L) of the beam, the variable-section longitudinal beam having two support bars attached to the exterior panel, these support bars extending over the entire length of the longitudinal beam, on either side of said opening, these two support bars being curved and each having a concavity facing the concavity of the other support bar. - two circumferential beams attached to the side edges of the door; - a plurality of longitudinal beams (5a, 5b) arranged substantially perpendicularly between the circumferential beams and attached to the exterior panel, each longitudinal beam (5a, 5b) extending from one circumferential beam to the other, and each longitudinal beam (5a, 5b) comprising: a first end coming into contact with one of the circumferential beams; and a second end which comes into contact with the other circumferential beam;
An image heating apparatus comprising: a heating rotatable member for heating an image on a recording material in a nip; a nip forming member for cooperating with said heating rotatable member to form the nip; a rubbing rotatable member having a rubbing material of abrasive grains for rubbing said heating rotatable member; a driving means for driving said rubbing rotatable member; and a control means for controlling the operation of said driving means, characterized in that an average particle size of said abrasive grains of said rubbing material is not less than 3 μm and not more than 16 μm, and the control means is adapted to satisfy the following: 7 × 10 - 3 ⁢ mm 3 / mm ≤ P / π Htanθ ⁢ V - v / V ≤ 68 × 10 - 3 mm 3 / mm where P: load by said rubbing rotatable member to said heating rotatable member, V: peripheral speed of said heating rotatable member [mm/sec], v: peripheral speed [mm/sec] of said rubbing rotatable member, H: microhardness [GPa] of said heating rotatable member) as measured with a Berkovich chip, the load at the time of measurement being increased for 5 seconds to 200 micro N and removed for 5 seconds, and θ: an average half-apex-angle [°] of said abrasive grains of said rubbing material. a heating rotatable member for heating an image on a recording material in a nip; a nip forming member for cooperating with said heating rotatable member to form the nip; a rubbing rotatable member having a rubbing material of abrasive grains for rubbing said heating rotatable member; a driving means for driving said rubbing rotatable member; and a control means for controlling the operation of said driving means, characterized in that an average particle size of said abrasive grains of said rubbing material is not less than 3 μm and not more than 16 μm, and the control means is adapted to satisfy the following: 7 × 10 - 3 ⁢ mm 3 / mm ≤ P / π Htanθ ⁢ V - v / V ≤ 68 × 10 - 3 mm 3 / mm where P: load by said rubbing rotatable member to said heating rotatable member, V: peripheral speed of said heating rotatable member [mm/sec], v: peripheral speed [mm/sec] of said rubbing rotatable member, H: microhardness [GPa] of said heating rotatable member) as measured with a Berkovich chip, the load at the time of measurement being increased for 5 seconds to 200 micro N and removed for 5 seconds, and θ: an average half-apex-angle [°] of said abrasive grains of said rubbing material. P: load by said rubbing rotatable member to said heating rotatable member, V: peripheral speed of said heating rotatable member [mm/sec], v: peripheral speed [mm/sec] of said rubbing rotatable member, H: microhardness [GPa] of said heating rotatable member) as measured with a Berkovich chip, the load at the time of measurement being increased for 5 seconds to 200 micro N and removed for 5 seconds, and θ: an average half-apex-angle [°] of said abrasive grains of said rubbing material.
Passive leaf locking device for a door, a window or similar having a fixed mountable frame with at least one active leaf - subsequently referred to as the active leaf -supported in the frame, and at least one passive leaf - subsequently referred to as the passive leaf, wherein it is provided that the passive leaf locking device is mountable in and/or on the passive leaf and has a locking mechanism, which is supported in the lock case, and a lock actuating device, and the locking mechanism of the passive leaf locking device has a latch lifting device for unlocking and/or retracting a latch engaging in a predetermined space of the passive leaf locking device, in particular lock latch or latch bolt of an active leaf locking device mounted in and/or on the active leaf, and the locking mechanism has a bolt lifting device for unlocking and/or retracting a bolt of an active leaf locking device mounted in and/or on the active leaf, said bolt engaging in a predetermined space of the passive leaf locking device, and the locking mechanism has an upper locking rod connecting device of an upper locking rod guided in and/or on the passive leaf, which is extendable upwards for locking and retractable downwards for unlocking, and the locking mechanism has a lower locking rod connecting device of a lower locking rod guided in and/or on the passive leaf, which is extendable downwards for locking and is retractable upwards for unlocking, and the lock actuating device has a motor drive device, and the driven element of the motor drive device is coupled with or couplable with the latch lifting device and the bolt lifting device and the upper locking rod connecting device and the lower locking rod connecting device directly or via a gear, characterised in that the locking mechanism of the passive leaf locking device has a lock gear with a gear slide, which is coupled with a pivotably supported lock follower via the gear, wherein the gear slide is drivable by means of an actuating handle, which is couplable in the lock follower by insertion, and the gear slide is guided vertically upwards in the lock case and is moveable downwards, and the gear slide is connected to the lower locking rod connecting device and is connected to the upper locking rod connecting device and is connected to the latch lifting device and is connected to the bolt lifting device, and the gear slide of the locking mechanism is coupled with or is couplable with the driven element of the motor drive device directly or via a gear, and when the locking device is unlocked by means of the motor drive device, the position of the lock follower remains unchanged, while an unlocking by actuating the handle results in a rotation of the lock follower.
A light emitting apparatus, comprising: a substrate including a first conductivity type impurity, characterized in that the light emitting apparatus further comprises: a first heatsink and a second heatsink in a first region and a second region of the substrate, respectively; first and second second-conductivity type impurity regions in a first portion and a second portion of the substrate, respectively, and electrically connected to the first heatsink and the second heatsink, respectively; a first electrode electrically connected to the first heatsink on the substrate; a second electrode electrically connected to the second heatsink on the substrate; and a light emitting device electrically connected to the first electrode and the second electrode on the substrate, wherein the first region is disposed on an upper surface of the substrate and the second region is disposed on a lower surface of the substrate, wherein the first region and the second region overlap each other, and wherein the first heatsink and the second heatsink overlap each other. a substrate including a first conductivity type impurity, characterized in that the light emitting apparatus further comprises: a first heatsink and a second heatsink in a first region and a second region of the substrate, respectively; first and second second-conductivity type impurity regions in a first portion and a second portion of the substrate, respectively, and electrically connected to the first heatsink and the second heatsink, respectively; a first electrode electrically connected to the first heatsink on the substrate; a second electrode electrically connected to the second heatsink on the substrate; and a light emitting device electrically connected to the first electrode and the second electrode on the substrate, wherein the first region is disposed on an upper surface of the substrate and the second region is disposed on a lower surface of the substrate, wherein the first region and the second region overlap each other, and wherein the first heatsink and the second heatsink overlap each other. a first heatsink and a second heatsink in a first region and a second region of the substrate, respectively; first and second second-conductivity type impurity regions in a first portion and a second portion of the substrate, respectively, and electrically connected to the first heatsink and the second heatsink, respectively; a first electrode electrically connected to the first heatsink on the substrate; a second electrode electrically connected to the second heatsink on the substrate; and a light emitting device electrically connected to the first electrode and the second electrode on the substrate, wherein the first region is disposed on an upper surface of the substrate and the second region is disposed on a lower surface of the substrate, wherein the first region and the second region overlap each other, and wherein the first heatsink and the second heatsink overlap each other.
A method of making a foamed part, comprising: introducing a long glass fiber filled polymeric material to a hopper of an injection molding machine, wherein the long glass fibers have a pre-molding length; melting the long glass fiber filled polymeric material to form a melt; pressurizing a plasticizing unit of the injection molding machine with a blowing agent, wherein a seal is located between a rotating part and a fixed part of the plasticizing unit; having the seal between a screw shaft and a plasticizing cylinder at an end of the screw shaft of the plasticizing unit to prevent loss of blowing agent; sealing the plasticizing unit with an airlock mounted between the cylinder of the injection molding machine and the hopper; increasing a pressure of the blowing agent and increasing a back pressure of the injection molding machine to homogenize the melt and the blowing agent, such that the screw is under a pressure with a relatively flat pressure profile to prevent breakage of the long glass fibers; and forming the foamed part; wherein a post-molding length of the long glass fibers in the foamed part is greater than or equal to a post-molding length of long glass fibers in a similarly dimensioned foamed part made without pressurizing the plasticizing unit due to long glass fiber breakage caused by shear stress during homogenizing of the melt and the blowing agent. introducing a long glass fiber filled polymeric material to a hopper of an injection molding machine, wherein the long glass fibers have a pre-molding length; melting the long glass fiber filled polymeric material to form a melt; pressurizing a plasticizing unit of the injection molding machine with a blowing agent, wherein a seal is located between a rotating part and a fixed part of the plasticizing unit; having the seal between a screw shaft and a plasticizing cylinder at an end of the screw shaft of the plasticizing unit to prevent loss of blowing agent; sealing the plasticizing unit with an airlock mounted between the cylinder of the injection molding machine and the hopper; increasing a pressure of the blowing agent and increasing a back pressure of the injection molding machine to homogenize the melt and the blowing agent, such that the screw is under a pressure with a relatively flat pressure profile to prevent breakage of the long glass fibers; and forming the foamed part; wherein a post-molding length of the long glass fibers in the foamed part is greater than or equal to a post-molding length of long glass fibers in a similarly dimensioned foamed part made without pressurizing the plasticizing unit due to long glass fiber breakage caused by shear stress during homogenizing of the melt and the blowing agent.
An equalization method for equalizing an image after compression by blocks followed by electronic transmission and decompression by the blocks, the method comprising the steps of: a) defining groups of blocks, each comprising at least one central block (B22; B52) and peripheral blocks (B11, B12,..., B21, B31; B41, B42,..., B51, B61), for each of the groups of blocks forming the image; b) for each block calculating an initial mean value of a component for equalizing; and c) determining an initial difference between the initial mean value of each peripheral block and the initial mean value of the central block; the method being characterized in that it comprises the steps of: d) selecting the peripheral blocks that present, relative to the central block, an initial difference that is less than a predetermined threshold; e) calculating a general mean value for the central block and the selected peripheral blocks; and f) applying the general mean value to the central block and to the selected peripheral blocks, replacing the initial value with the general mean value. a) defining groups of blocks, each comprising at least one central block (B22; B52) and peripheral blocks (B11, B12,..., B21, B31; B41, B42,..., B51, B61), for each of the groups of blocks forming the image; b) for each block calculating an initial mean value of a component for equalizing; and c) determining an initial difference between the initial mean value of each peripheral block and the initial mean value of the central block; d) selecting the peripheral blocks that present, relative to the central block, an initial difference that is less than a predetermined threshold; e) calculating a general mean value for the central block and the selected peripheral blocks; and f) applying the general mean value to the central block and to the selected peripheral blocks, replacing the initial value with the general mean value.
A rotor cage of a threshing system of an agricultural harvester, the rotor cage comprising an adjustable vane system comprising: a vane movably positioned relative to the rotor cage; wherein the vane has: a generally helically curved inner profile; a surface being an outer profile that is opposite the inner profile and is generally helically curved over a portion of the vane; and characterized in that the vane further has: a first flat portion proximate an end of the vane on the outer profile; and a second flat portion proximate to another end of the vane on the outer profile; and a third flat portion located midway along the outer profile. a vane movably positioned relative to the rotor cage; wherein the vane has: a generally helically curved inner profile; a surface being an outer profile that is opposite the inner profile and is generally helically curved over a portion of the vane; and a generally helically curved inner profile; a surface being an outer profile that is opposite the inner profile and is generally helically curved over a portion of the vane; and characterized in that the vane further has: a first flat portion proximate an end of the vane on the outer profile; and a second flat portion proximate to another end of the vane on the outer profile; and a third flat portion located midway along the outer profile. a first flat portion proximate an end of the vane on the outer profile; and a second flat portion proximate to another end of the vane on the outer profile; and a third flat portion located midway along the outer profile.
A power electronics building block (4a, 4b, 4c, 4d) for a multilevel converter comprising: - at least two half bridge modules (6, 6'), each having a capacitor unit (8, 8') and at least two semiconductor switches (24, 24', 24", 24"'); - a gate unit (12, 12') configured to control the semiconductor switches; - a conductor arrangement (28, 28') comprising an electric conductor and at least a first and second terminal portions (33a, 33b); - first and second conductor bridges (36a, 36b); and - a sub cell (5, 5a, 5b, 5a', 5b'); wherein the sub cell (5, 5a, 5b, 5a', 5b') comprises said at least two half bridge modules connected in parallel, the conductor arrangement is configured to be connected to the sub cell in at least two different ways in order to provide a half bridge configured sub cell (5a, 5a') or a full bridge configured sub cell (5b, 5b') for the power electronics building block (4a, 4b, 4c, 4d) and the two half bridge modules are connected in parallel by the first and the second conductor bridges, wherein either there are at least a first and two or more second terminal portions and the electric conductor comprises a mechanical breaker, where said electric conductor with mechanical breaker and said at least a first and two or more second terminal portions are fixedly connected to the sub cell and the second terminal portions comprise breakers, or the sub cell comprises connecting sockets at the correct positions, so that the electric conductor, the first and a second terminal portions, and the conductor bridges may be connected to the sub cell via plugs. - at least two half bridge modules (6, 6'), each having a capacitor unit (8, 8') and at least two semiconductor switches (24, 24', 24", 24"'); - a gate unit (12, 12') configured to control the semiconductor switches; - a conductor arrangement (28, 28') comprising an electric conductor and at least a first and second terminal portions (33a, 33b); - first and second conductor bridges (36a, 36b); and - a sub cell (5, 5a, 5b, 5a', 5b');
An in vitro method for detecting presence of cancer, said method comprising the steps of: (a) obtaining a single hair sample; (b) generating small angle X-ray scattering intensity profile based on the hair sample to obtain SAXS data; (c) desmearing the SAXS data and performing Kratky Analysis; (d) performing relative estimation of peak area under 1.38 nm -1 to 0.89 nm -1 from keratin and lipid content in the hair sample to obtain R; (e) computing R' by the formula: 10 × R 2 /(D-R), wherein D is hair thickness in micron; and (f) comparing the value of R' with clinically validated samples; wherein R' value below 0.7 is indicative of presence of cancer and R' value above 0.8 indicates absence of cancer. (a) obtaining a single hair sample; (b) generating small angle X-ray scattering intensity profile based on the hair sample to obtain SAXS data; (c) desmearing the SAXS data and performing Kratky Analysis; (d) performing relative estimation of peak area under 1.38 nm -1 to 0.89 nm -1 from keratin and lipid content in the hair sample to obtain R; (e) computing R' by the formula: 10 × R 2 /(D-R), wherein D is hair thickness in micron; and (f) comparing the value of R' with clinically validated samples;