Abstract: A vacuum suction device has a transfer base, multiple suction heads, a vacuum generator, a pressure balance set, and a first pressure blow set. Each one of the suction heads has at least one channel and a withdraw end. The vacuum generator is connected with a vacuum circuit electromagnetic valve. The first end of the pressure balance set is connected with the channel of each suction head. The second pressure blow set is connected with the third pipe and has a second pressure blow electromagnetic valve, a pressure regulator, and a pressure source. The first pressure blow set is connected to the fourth pipe and has a pressure blow electromagnetic valve and a pressure source.

Abstract: A second finger 40c of a hand part 40 includes a first link member 40c1 and a second link member 40c2 that are integrally rotatable with respect to a hand base 40a, a spring 40c3, and a second finger side engagement part 40c4. The spring 40c3 biases the second link member 40c2 so that a position of the second link member 40c2 with respect to the first link member 40c1 is maintained. A second finger side engagement part 40c4 is engaged with a hand base side engagement part 40a1 when the second link member 40c2 is moved by a load applied from an object O against a biasing force of the spring 40c3.

Abstract: A hand section 40 includes a hand base section 40a attached to a link section, a first finger section 40b provided to extend in a direction non-parallel with a direction toward a tip end portion from a base end portion of the hand base section 40a, from the tip end portion of the hand base section 40a, and a camera 40f provided at a side surface of the hand base section 40a, and capable of imaging a sideward of the hand base section 40a.

Abstract: A joint for transmitting movements between articulated elements of a parallel kinematics robot has at least two degrees of freedom and includes: a first housing, a second housing arranged rotatable in relation to the first housing about a first axis, and a shaft arranged rotatable in relation to the second housing about a second axis which coincides with a longitudinal axis of the shaft. The shaft is arranged rotatable in relation to the second housing by at least a first angular contact bearing. In applications where one of the revolute pairs of a joint is subjected to radial and axial forces of similar order, and another one is subjected almost solely to radial forces, it is advantageous to manage the forces of the prior by means of an angular contact bearing or bearings configured to bear both radial and axial loads, whereby a joint with very small backlash in a particularly compact design can be achieved.

Abstract: A switch structure for pliers contains: a first operation part, a second operation part, a first spring, a fastener, and a limitation member. The first operation part is rotatably connected with the second operation part so as to form a first grip, a second grip, a first cutting plier, and a second cutting plier. The first spring is defined between the first grip and the second grip, and the first grip has a notch. The fastener is rotatably connected with the first grip and includes a hook and a coupling extension. The limitation member partially extends out of the notch and movably fits on the coupling segment, and the limitation member includes a wide-diameter section for retaining with the notch and includes a narrow-diameter section for removing the limitation member from the fastener, wherein the second grip has a fixing post configured to retain with the hook.

Abstract: A reciprocating electric razor head includes a fixed blade and a fixed blade support for supporting and fixing the fixed blade. The fixed blade is provided with hair entrance holes for body hair to enter, and an inner side of the fixed blade is provided with a movable blade capable of moving backward and forward in a reciprocating manner relative to the fixed blade to cut off the body hair inside the hair entrance holes, such that the fixed blade obtains a very flat cutting working face contacting the movable blade without the need for additional precision machining.

Abstract: The invention relates to a handle for a shaving razor having a 3-dimensional lattice framework structure to provide both ergonomic and economic benefits.

Abstract: The present disclosure relates to safety blades for use in utility knives, related assemblies and methods of manufacturing. More specifically, the present disclosure relates to safety blades for use in utility knives, related assemblies and methods of manufacture which limit user exposure to associated cutting edges.

Abstract: A cutting mat includes two baseboards, at least one foldable sheet connecting the two baseboards and multiple back antiskid units. Each baseboard has a cutting surface formed on a front thereof and a back, wherein the two baseboards are adjacent to each other and the foldable sheet is attached to the back of each of the two baseboards for connecting the two adjacent baseboards. The foldable sheet has a pre-folding line formed thereon along an abutment between the two adjacent baseboards such that the foldable sheet is folded along the pre-folding line to make the two baseboards completely abutting each other. The multiple back antiskid units are formed by printed antiskid layers that are distributed on the back of each of the two baseboards and a back of the foldable sheet.

Abstract: In a punch device (100) with a marking element (110) for marking drilled holes to be applied with positional accuracy for the purpose of the positionally accurate positioning of an object to be attached to a wall (200), in situ correctable and thus accurately definable marking of drilled holes to be inserted into a wall (200) for the attachment of objects to the wall (200) is achieved in that the marking element (110) at least for the most part is reciprocally mounted inside a housing (120), which is provided with a front positioning element (130) close to the wall provided with a central opening (131) for mounting a supporting element (150) connected to the marking element (110) for positioning the punch device (100) on a wall (200), as well as with a mounting element (140) provided with a drilled hole (141) for mounting a supporting element (150) connected to the marking element (110), which mounting element has a means for the releasable attachment of the punch device (100) to the object to be attached to

Abstract: A pressurized fluid jet cutting head is provided. The cutting head includes a body having one or more component parts coupled together, wherein a junction in the cutting head is defined between a first component part having a first engagement surface and a second component part having a second engagement surface, wherein the first and second engagement surfaces abut at the junction. A temperature sensor is positioned in thermal communication with the body and is configured to measure a temperature value of at least one of the first component part, the second component part, and the junction. The temperature value is communicated to a controller for analysis, wherein the controller receives the measured temperature value and communicates operating instructions for the cutting head based on a comparison of the measured temperature value to a predetermined value.

Abstract: A table saw includes a table, a saw, a track, a slide strip, and a fence member. The table has an axial direction and a radial direction which are orthogonal to each other. The saw is arranged at a predetermined position of the table. The track is arranged at each side of the table. The slide strip is slidably engaged with the track. An outer surface of the slide strip opposite to the track has a first position part, a second position part, and a third position part. The first position part and the second position part are respectively arranged at two ends of the slide strip and the third position part is arranged at a center of the slide strip. The fence member is bridged on the table and secured to one of the first position part, the second position part, and the third position part.

Abstract: A safety system for powered cutting tools is disclosed. The safety system comprises a number of component devices that may be used alone or in combination to substantially reduce the risk of injury to the operator of the power cutting tool. The devices are designed for use with table saws, miter saws, jointers, routers, shapers and similar equipment. The devices secure a work piece against unanticipated movement and kickback while simultaneously protecting the operator's hands. The devices further enhance the capabilities of power equipment to make precise cuts safer, faster and easier.

Abstract: The invention relates to a method for treatment of wood material. In a first treatment step comprises the provision of a solution comprising zinc oxide or titanium(IV) isopropoxide and immersion of the wood material into the solution. After drying of the wood material a second treatment step is following in case of the first solution comprising zinc oxide. The second treatment step comprises the provision of a solution comprising a zinc compound and immersion of the wood material from the first treatment step into the solution followed by drying of the wood material. In a second aspect the invention relates to a wood material characterized by the visibility of the natural appearance of the surface and at least one other property relating to UV resistance, weathering resistance, mechanical resistance or hydrophobic properties.

Abstract: Certain exemplary embodiments can provide a system that comprises a frame. The frame comprises an object retaining base, wedge mounting surface, and a frame cylinder mounting surface. The frame cylinder mounting surface is on an opposing side of the frame than the wedge mounting surface. A cutting wedge is coupled to the wedge mounting surface of the frame.

Abstract: A sheet manufacturing apparatus suppresses material being left in a material supply conduit while manufacturing sheets with uniform grammage. A sheet manufacturing apparatus includes: a rotatable, foraminous drum unit; a web forming unit configured to form a web using material including fiber that has passed through the holes in the drum unit; and a material supply conduit having a connector that connects to the drum unit, and carrying material including fiber into the drum unit by air flow; the velocity of the flow in the connector being lower than the velocity of the flow on the upstream side of the connector.

Abstract: An additive manufacturing process for the manufacture of a body from composite materials, including the steps of: providing a support structure against which the composite material is to be formed; installing a reinforcing material adjacent the support structure; and progressively applying a matrix material to the support structure to cover the reinforcing material, the matrix material being applied from a nozzle movable relative to the support structure.

Abstract: A method for manufacturing a pre-fabricated element for construction and electricity production includes providing a formwork mould; introducing a photovoltaic module into the formwork mould, and for this purpose vertically positioning the photovoltaic module against or in replacement of one of the walls of the formwork mould, the front face of the at least one photovoltaic module being arranged so as to face an area of the space located outside the mould; depositing an adhesive structural material or a mixture of adhesive structural materials on all or part of the rear face of the at least one photovoltaic module arranged so as to face an area of the space located inside the mould, the adhesive structural material including at least one polymer from the epoxide, polyurethane, acrylic, or styrene-acrylic family, and pouring fresh concrete into the formwork mould so as to cover the adhesive structural material.

Abstract: A tile saw includes a frame supporting a saw, a table, and pan. The pan includes an inside bottom surface and an outer wall defined by a first end wall, a second end wall spaced away from the first end wall, and first and second side walls extending between the first end wall and the second end wall. A connection assembly couples the frame to the pan, and includes a first engagement member disposed on the first end wall, and second and third engagement members disposed on the second end wall. A stand includes a plurality of legs that support the pan. A transport assembly transports the pan, the table, and the frame separately from the stand. The transport assembly includes wheels coupled to one of the first end wall or second end wall, and a handle coupled to the other of the first end wall or second end wall.

Abstract: [Problem] To provide a propylene-based resin-adhered fiber bundle having an enhanced binding force between a carbon long fiber bundle and a propylene-based resin by associating a carbon fiber concentration and a fiber bundle diameter with each other. [Means for solution] A propylene-based resin-adhered carbon fiber bundle prepared by cutting a carbon fiber bundle integrated with a propylene-based resin adhered thereto, wherein: the propylene-based resin contains a base polymer selected from a propylene homopolymer and a propylene copolymer, and an acid group-containing propylene-based resin and/or an amino group-containing propylene-based resin; the carbon fiber bundle has a sizing agent adhered on a surface thereof; and an outer diameter is 2.8 to 4.2 mm, a carbon fiber concentration is 5 to 25 mass % and a length is 4 to 50 mm.

Abstract: A production of thermoplastic composite preforms intended to be thermoformed. The unit including: a movable support and a plurality of storage areas for storing a plurality of structural elements made from thermoplastic composite material; and transfer and connection devices for transferring the structural elements to the movable support and connecting the structural elements to one another. The movable support is driven sequentially in translation in a direction of travel, while the storage areas are arranged laterally in relation to the movable support. The transfer and connection devices transfer the structural elements to the movable support along a transfer direction substantially perpendicular to the direction of travel.

Abstract: A preform 20 comprises a neck portion 22 having an opening 21, a cylindrical barrel portion 23, and a bottom portion 24 larger in diameter than the barrel portion 23, and has a corner portion 25 at a boundary between the barrel portion 23 and the bottom portion 24.

Abstract: Provided is a fiber-reinforced resin material molding in which fluctuations of the dispersion state of the fiber bundle in the molding is small, the generation of a resin pool is suppressed, and fluctuations in physical properties such as tensile strength and modulus of elasticity are suppressed; a method for manufacturing the same; and a method for manufacturing a fiber-reinforced resin material. Provided is a fiber-reinforced resin material molding comprising: a fiber bundle prepared by bundling a plurality of reinforcing fibers; and a matrix resin, wherein a coefficient of variation in fiber content of the reinforcing fibers per unit zone of 0.1 mm square on a cut face along a thickness direction is 40% or less.

Abstract: An improved three-dimensional structure and method and system of making same is provided, wherein the method for forming the three-dimensional structure comprises: coating a filament with a curable resin; directing a first portion of the coated filament around a plurality of pins fixed to and extending outwardly from a frame, the coated filament directed to intersect according to a pre-set pattern, the coated filament forming a first filament layer; directing a second portion of the coated filament about said pins forming one or more subsequent filament layers aligned and in contact with the first filament layer, the filament layers collectively forming a filament stack, the filament stack having a predetermined height and defining the intersecting panel elements; and curing the curable resin such that it hardens and retains the individual filament layers forming the filament stack in a three-dimensional shape.

Abstract: Method and device for delamination/dismantling of multi-layer systems SM comprising several layers including at least one organic layer, wherein the layers are separated by interfaces, characterized in that it comprises at least the following steps: Mixing the multilayer system with a fluid composed of at least one gas having the particularity of causing the swelling of at least one of the layers and one or more non-reactive liquids having the particularity of allowing the separation of each layer unitarily or of subsets of layers composing the multilayer system without degradation of the constituents of the layers, the gas/liquid fluid being raised in temperature and pressure, Recovering separately at least one or more layers or a subset of undegraded layers.

Abstract: A device (1a . . . 1i) for processing thermoplastic plastic is described, comprising a storage container (2) for receiving pieces of plastic particles or a conveying line (14) for conveying the pieces of plastic particles, and a conveying screw (3) following the storage container (2)/the conveying line (14) at a transfer opening (A). The device (1a . . . 1i) also comprises an extruder (4) following the conveying screw (3) and an air outlet (7) arranged opposite the transfer opening (A) and directed at this opening. A method for operating the device (1a . . . 1i) is also described, in which an air stream is aligned with the transfer opening (A). The strength and/or the direction of the air stream is adjusted or controlled as a function of a load on the extruder (4).

Abstract: A mold may include a plurality of nanostructures configured to form a lithographic pattern when imprinted into a material. Imprinting may include imprinting the mold a first predetermined distance, modifying a temperature of the material, and altering a position of the mold based on the temperature modification. One or more thermal elements may alter a temperature of a first section of the material and/or one or more nanostructures for a predetermined pulse time less than an equilibrium time required for the mold and/or material to reach a stable temperature state. A first thermal element may selectively alter the temperature of a first section of the material and/or a first nanostructure and a second thermal element may selectively alter the temperature of a second section of the material and/or a second nanostructure. The one or more thermal elements may include one or more thermoelectric elements.

Abstract: A mold includes a hydrogel material. The hydrogel material includes a hydrogel and a cross-linked structure. The hydrogel contains a temperature-responsive hydrogel-forming polymer A having a sol-gel transition temperature. The temperature-responsive hydrogel-forming polymer A is solated at a temperature lower than the sol-gel transition temperature and is gelated at a temperature higher than the sol-gel transition temperature. In the cross-linked structure, a cross-linking water-soluble polymer B to reinforce the hydrogel is cross-linked.

Abstract: A retaining wall block having a false joint and a system of retaining wall blocks. The retaining wall block includes a body having a first textured surface and a second textured surface and a false joint dividing the first and second textured surface. The false joint can have a depth divided by the width greater than two inches. The false joint can have an interior angle of less than ten degrees. The system includes a plurality of retaining wall blocks and a first course of retaining wall blocks engaged with a second course of retaining wall blocks below. Each block in the system comprising a front face having a first textured surface and a second textured surface and a false joint dividing the first and second textured surface. The false joint can extend a predetermined depth of a third surface.

Abstract: A method for producing textile composite material preforms, particularly with or from one or more textile semi-finished products, includes compression molding a planar structure of one or more textile composite materials. The planar structure is cut laterally into textile composite material sections prior to compression molding and these cut textile composite material sections undergo compression molding individually or collectively and particularly with one or more other textile composite material sections such that as a result one or more textile composite material preforms are fully or partially formed.

Abstract: A three-dimensional image data generation system includes: an editing unit configured to edit grayscale image data in which a density level for specifying an foaming height of a thermally expandable sheet is set for each coordinate in a planar direction; and a conversion unit configured to, when the editing unit changes a size in the planar direction of an image region included in the grayscale image data, convert the density level in correspondence with a ratio of the image region between before and after the change.

Abstract: A method of forming a resilient seal about a work piece is presented. The method includes the steps of providing a work piece defining a rib circumferentially protruding from an outer surface about a longitudinal axis of the work piece and providing a mold. The mold defines a first cavity configured to receive the work piece, a second cavity circumferentially extending about the longitudinal axis of the work piece and in communication with the first cavity, and a port in communication with the second cavity. The method further includes the steps of inserting the work piece within the first cavity such the rib is circumferentially in intimate contact with an inner surface of the first cavity, introducing a curable resilient material into the port, thereby filling the second cavity with the resilient material, curing the resilient material, and then removing the work piece from the mold.

Abstract: The present subject matter relates to carbon fiber composites. A method to form a polymer carbon fiber composite includes subjecting two sheets of carbon fibers to an insert molding mold, such that one sheet is secured at a cavity side of the insert molding mold and another sheet is secured at a core side of the insert molding mold. The method further includes insert molding a polymer between the two sheets of carbon fibers to form the polymer carbon fiber composite, wherein the polymer sets between the two sheets of carbon fibers to form a sandwich structure of the polymer carbon fiber composite, and wherein the polymer is in contact with the two sheets of carbon fibers.

Abstract: A reel based tensioning device includes a housing, a spool that is rotatably positioned within the housing, and a knob member that is operably coupled with the spool to cause the spool to rotate in a first direction within the housing and thereby wind a tension member about the spool. The reel based tensioning device also includes a load holding mechanism that is coupled with the spool and that is configured the spool to rotate in the first direction within the housing and to prevent rotation of the spool in a second direction to prevent unwinding of the tension member from about the spool. The reel based tensioning device further includes an audible component that is configured to produce an audible noise responsive to operation of the knob member to signal an adjustment of the tension member.

Abstract: A molded article 1 is made of a resin material 3 containing cellulose fibers 2. The molded article 1 has a surface portion 4 that is in a range satisfying TF?0.1×T where T is the thickness of the molded article 1 and TF is a distance from the surface of the molded article 1, and the molded article 1 satisfies DF?1.1×D where D is an average cellulose concentration of the overall molded article 1 and DF is an average cellulose concentration of the surface portion 4. Thus, the molded article suppresses an increase in bending modulus while considerably improving a tensile modulus.

Abstract: A system for molding a door part of an automobile air conditioner is provided. The system is capable of automating a double injection-molding performed in two stages for a cover plate and a seal of the door part. The system includes a first molding unit for molding the cover plate, a second molding unit for integrally molding the seal onto a circumference of the cover plate, and a carrier unit arranged between the first and second molding units for moving the cover plate molded by the first molding unit to the second molding unit.

Abstract: A secondary molding component includes: a first molding portion that has a base portion and a projecting portion projecting from an outer surface of the base portion and is made of resin; and a second molding portion that has a bonded portion bonded to a circumference of the projecting portion and is made of resin, in which the projecting portion has a fused portion that is fused with a part of the bonded portion at an end opposite to the base portion, and an interface between the projecting portion and the bonded portion has a portion that is formed so as to vertically stand from the base portion.

Abstract: The device for demolding negatives in thermoplastic injection molds includes an ejector (3), which comprises an ejector profile (5) for the fastening thereof to an ejector plate (2), and a figure insert (6) with a profile that is complementary to the piece (4) to be molded, wherein said ejector (3) further comprises a flexible element (7) arranged between the ejector profile (5) and the figure insert, which pushes said figure insert (6) in order to demold the negative by means of angular displacement and stretches said figure insert (6) so as to return the ejector (3) to the injection position thereof. It makes it so molding sliders are no longer necessary, hence, these spaces, the costly sliders, and the painstaking machining processes for the installation thereof in the molds are no longer required.

Abstract: An injection device is equipped with a brake mechanism provided on a rotary shaft of an injection motor extending toward a screw side along an axial direction of the screw and configured to brake rotation of the rotary shaft, an injection motor connecting portion extending in a direction substantially perpendicular to the axial direction, and an injection motor supporting portion connected to the injection motor connecting portion so as to be adjustable in position relative to the injection motor connecting portion, and configured to support the injection motor and the brake mechanism.

Abstract: A method for forming a part in an injection mold, includes: heating a molding material to a molding temperature; injecting the molding material through a gate and into a molding cavity of the injection molding apparatus of any of the preceding claims; pressing the stationary half and the moving half together to form the molding cavity between the resin mold surface and the insert molding surface; moving the movable mold insert, and thereby moving the insert molding surface and adjusting the molding cavity shape, the molding cavity depth, the molding cavity volume, or a combination comprising at least one of the foregoing along at least a portion of the molding cavity; cooling a surface of the molding cavity with the cooling system; separating the resin mold surface and the moving half mold surface; and ejecting the part from the injection molding apparatus.

Abstract: An injection molding apparatus comprising a clamp plate, a heated manifold, an actuator, a mold and a cooling device, wherein the cooling device comprises: a heat transmitter comprising a distal arm or member and a proximal base or member, the distal arm or member being mounted by a spring loadable interconnection or engagement to or with the proximal base or member, the clamp plate, the mold, the manifold, the actuator and the heat transmitter being assemblable together in an arrangement wherein the spring loadable interconnection is loaded urging the distal end surface of the distal arm or member into compressed engagement with the clamp plate.

Abstract: An injection molding apparatus comprising a clamp plate, a heated manifold, an actuator, a mold and a cooling device, wherein the cooling device comprises: a heat transmitter comprising a distal arm or member and a proximal base or member, the distal arm or member being mounted by a spring loadable interconnection or engagement to or with the proximal base or member, the clamp plate, the mold, the manifold, the actuator and the heat transmitter being assemblable together in an arrangement wherein the spring loadable interconnection is loaded urging the distal end surface of the distal arm or member into compressed engagement with the clamp plate.

Abstract: A lamp optical component comprises a hollow extruded component, where the hollow extruded component includes a photoluminescence portion and a light shaping portion, and where the photoluminescence portion extends into an interior volume of the hollow extruded component.

Abstract: Disclosed are stretch films and methods for making the same, which can provide desired performance.

Abstract: An article comprising: a carrier (12), activatable material (14) disposed on the carrier, one or more carrier extensions (16) extending from the carrier; wherein the article is adapted to provide sealing, baffling, or reinforcement within a structure's cavity.

Abstract: A calibration and cooling tank of an extrusion line, which connects to an extrusion tool, wherein a vacuum can be applied to the calibration and cooling tank for calibrating the plastic melt emerging from the extrusion tool, wherein the calibration and cooling tank extends along an extrusion axis. The calibration and cooling tank is modularly structured, wherein at least one module forms a calibration and cooling section and the module has a connection region on both sides to which an additional module can be attached. The connection region includes a flange that extends from the base element of the calibration and cooling tank to the outside.

Abstract: A temperature measurement method of a honeycomb formed body including: a temperature sensor attaching step of attaching a temperature sensor to the honeycomb formed body, an introducing step of mounting, on a shelf plate, the honeycomb formed body to which the temperature sensor is attached, and a temperature measurement device which receives a sensor signal from the temperature sensor to acquire temperature information of the formed body temperature, and introducing the shelf plate on which the honeycomb formed body and the temperature measurement device are mounted, from the inlet into the firing space, a temperature measuring step of acquiring the temperature information of an inner portion of the honeycomb formed body, by the temperature measurement device conveyed together with the honeycomb formed body, and a collecting step of collecting the temperature sensor and the temperature measurement device from a take-out port.

Abstract: A hollow container producing device for producing a hollow container using a pair of parison sheets is provided. The hollow container producing device includes a pair of molds; an intermediate frame to be clamped to the pair of molds; and a transport unit that carries the intermediate frame and a pair of parison sheets to a position between the pair of molds, with the pair of parison sheets being respectively held on opposite sides of the intermediate frame.

Abstract: A thermoforming assembly includes a lower mold part (20) and an upper mold part (34). The two mold parts are able to move in a substantially vertical direction between an open position and a closed position. Retaining members (28) are able to hold a sheet of softened thermoplastic (10) in a substantially horizontal mean plane Pm between the two mold parts. The retaining members include a plurality of rods (28) mounted mobile in the lower mold part (20). The rods (28) project out from the lower mold part (20) when the two mold parts (20, 34) are in the open position, to hold the sheet of softened thermoplastic (10) in the substantially horizontal mean plane Pm and accompany it as the mold closes.

Abstract: The invention relates to a mould for furnace/steam bending of plastic or rubber tubes, which comprises a shaping labyrinth (3). The shaping labyrinth (3) comprises at least two adjacent parts (I, II), each of which is provided at the end intended to connect to the adjoining part with a connecting flange (6) for joining the adjacent parts (I, II) of the labyrinth (3). The invention also relates to a method of producing a mould for furnace/steam bending of plastic or rubber tubes, in which is formed a shaping labyrinth (3), whose shape is subsequently adjusted according to the control master jig of the tube to be shaped.