34results about How to "Reduce radial width" patented technology

An accommodating intraocular lens to be implanted within the natural capsular bag of a human eye from which the natural lens matrix has been removed through an anterior capsule opening in the bag circumferentially surrounded by an anterior capsular remnant. During a postoperative healing period following surgery, the anterior capsular remnant fuses to the posterior capsule of the bag by fibrosis about haptics on the implanted lens while the ciliary muscle is maintained in its relaxed state by a cycloplegic to prevent dislocation of the lens, and the lens is deflected rearwardly by the fibrosing anterior capsular remnant to a distant vision position against the elastic posterior capsule of the bag in which the posterior capsule is stretched rearwardly. After fibrosis is complete, natural brain-induced contraction and relaxation of the ciliary muscle relaxes and stretches the fibrosed anterior remnant and increases and reduces vitreous pressure in the eye to effect vision accommodation by the remnant, the posterior capsule, and vitreous pressure.

A motor includes a plurality of bus wires of a common phase which are put together before being guided in a common passage to minimize the space arranged to guide the bus wires. Also, the bus wires of a common phase are easily insulated from those of different phases, and an axial height of the motor is reduced. Further, a radial width necessary to guide the bus wires is reduced, and an axial height of the motor including a sensor portion which detects a rotary position of the motor is reduced. Also, the bus wires are easily extended from the armature, and an amount of work required to connect the bus wires and the terminals is reduced. Furthermore, the connection terminal portion does not interfere with the bus wires when they are being guided.

An improved variable geometry diffuser (VGD) mechanism for use with a centrifugal compressor. This VGD mechanism extends substantially completely into the diffuser gap so that the VGD mechanism may be used more fully to control other operational functions. The VGD mechanism may be used to minimize compressor backspin and associated transient loads during compressor shut down by preventing a reverse flow of refrigerant gas through the diffuser gap during compressor shutdown, which is prevented because the diffuser gap is substantially blocked by the full extension of the diffuser ring. During start-up, transient surge and stall also can be effectively eliminated as gas flow through the diffuser gap can be impeded as load and impeller speed increase, thereby alleviating the problems caused by startup loads at low speeds. The VGD mechanism can be used for capacity control as well so as to achieve more effective turndown at low loads.

Each tooth of a stator core has circumferential projections at an inner tooth edge and circumferential notches at a base portion adjacent to a core back. A width of the teeth at the base portion is larger than a width of the same at the tooth edge. Therefore, the magnetic reluctance of the teeth does not increase. In addition, a plurality of the magnetic strips can be formed from a long and thin magnetic sheet. This increases the yield percentage of the magnetic strip and reduces a manpower of manufacturing the magnetic strip. Further, the notches make it easy to wind the magnetic strip into a cylindrical core.

A washing machine provided with a balancing device which may suppress variation in horizontal vibration of a spin basket without performing control operation. The balancing device includes a ring-shaped casing installed to be concentric with the spin basket, and a plurality of the balancing balls and a viscous fluid. A ring-shaped ball accommodation portion, a fluid accommodation portion provided at a lower inner side of the ball accommodation portion in a radial direction of the ball accommodation portion, and a communication channel are formed in the casing. The fluid accommodation portion is provided at a portion of the casing along a circumferential direction of the casing. A bottom surface of the ball accommodation portion is inclined downward such that the balancing balls gather at the opposite position facing the fluid accommodation portion when rotation of the spin basket is stopped.

A rotor and a method of constructing a rotor are disclosed. The rotor includes a hub that is capable of being supported by a shaft that extends along an axis, a plurality of laminations, and a plurality of wire windings supported by the plurality of laminations. The hub includes an inner structure configured to support the hub relative to the shaft, an outer structure that supports the laminations, and an intermediate structure that is coupled to the inner and outer structures and supports the inner and outer structures relative to one another.

The invention discloses an impeller, a water pump and a design method of the water pump. The impeller comprises a front cover plate, a rear cover plate and vanes arranged between the front cover plate and the rear cover plate, wherein the radius of the front cover plate is larger than that of the rear cover plate, the edges of the vanes are located outside the edge of the rear cover plate, and the liquid flowing-out direction at a water outlet of the impeller is the axial direction. The water pump comprises the impeller, the impeller is arranged inside a pump body of the water pump, a pumping chamber cavity of a pumping chamber which is in the pump body and cooperates with the impeller to work is axially arranged, a separating tongue is arranged in the pumping chamber, the arrangement angle psi 0 of the separating tongue is from 15 degrees to 25 degrees, 1 / 6 part of the pumping chamber is located under the rear cover plate of the impeller, and the rest of the pumping chamber spirally and gradually exceeds the position under the rear cover plate. By means of the impeller, the water pump and the design method of the water pump, the liquid flowing-out direction of the liquid at the water outlet of the impeller is changed into the axial direction instead of the radial direction, and therefore the size of the water pump is decreased.

The invention relates to an anti-divergence waterway structure. The structure comprises a flow channel for providing a flowing space for water flow, at least one bend for changing the flow direction of the water flow is arranged on the flow channel, flow guide ribs are arranged between the bends and a water outlet of the flow channel, and the water flow at the bends is guided to be sprayed towardsthe axial direction of the water outlet in a vortex mode under the action of the flow guide ribs. By means of arrangement, the flow direction of the flow channel with the bends can be corrected underthe action of the flow guide ribs, then water flow vortexes at the bent positions of the flow channel are guided, and the purpose of preventing outflow water of the flow channel from diverging is achieved. The invention further relates to a washing machine water intake structure, the washing machine water intake structure comprises at least one water inlet flow channel, the waterway structure isarranged on the water intake flow channel, and the flow channel of the waterway structure sprays inlet water flow into the corresponding washing flow channel from the water outlet.

A magnet plate used for a rotor core of a motor, includes a magnetic pole portion being set between an outer peripheral edge of a body portion and a magnet slot and having a radial width being smaller than a radial sectional width of the permanent magnet, and a higher hardness portion being formed into a hook shape along an end corner of the magnet slot and have a smaller width than the radial sectional width of the permanent magnet.

An improved variable geometry diffuser (VGD) mechanism for use with a centrifugal compressor. This VGD mechanism extends substantially completely into the diffuser gap so that the VGD mechanism may be used more fully to control other operational functions. The VGD mechanism may be used to minimize compressor backspin and associated transient loads during compressor shut down by preventing a reverse flow of refrigerant gas through the diffuser gap during compressor shutdown, which is prevented because the diffuser gap is substantially blocked by the full extension of the diffuser ring. During start-up, transient surge and stall also can be effectively eliminated as gas flow through the diffuser gap can be impeded as load and impeller speed increase, thereby alleviating the problems caused by startup loads at low speeds. The VGD mechanism can be used for capacity control as well so as to achieve more effective turndown at low loads.

The invention relates to a friction device for a clutch, particularly of a motor vehicle. The inventive friction device comprises first and second axially-spaced coaxial friction lining members which are defined by opposing friction faces. The device also comprises means for linking the two friction lining members which are solidly connected to one another. The first friction lining member is essentially ring shaped. The aforementioned linking means comprise linking tongue elements which are each equipped with a first end for solidly connecting to an inner edge of the first friction lining member and a second end for solidly connecting to the second friction lining member. Moreover, a deviation angle is provided between said first and second connecting ends, which can vary according to the axial spacing of the two friction lining member.

The present disclosure is to reduce a blowing resistance while securing a mechanical strength of a fan guard.An outdoor unit 100 includes a housing 10 in which an air discharge port X is formed on an upper wall 11, a blowing fan 20 disposed inside the housing 10 to correspond to the air discharge port X, and a fan guard 30 configured to cover the blowing fan 20, wherein the fan guard 30 includes a plurality of annular ribs 32 disposed to be spaced apart from each other in a radial direction of the blowing fan 20, and radial ribs 33 configured to connect a plurality of the annular ribs 32, and wherein the radial ribs 33 are formed such that free ends 3a thereof are bent in the same direction in a cross section orthogonal to a stretching direction and a pair of opposing piece portions 3b including each of the free ends 3a are in surface contact with each other.

The invention discloses a peanut shelling device. The device comprises a first shell, a disk, a first cylinder, a material splitting bench, a shelling mechanism and a first separating mechanism, wherein the first shell includes a first portion, a second portion and a third portion; the disk is arranged on the central section of the upper end of the first portion; the first cylinder is arranged inthe first portion; the upper portion of the material splitting bench is located in the first portion and a lower portion is optionally located in the first portion or in the second portion; the shelling mechanism includes a rotation body, a second cylinder, a first spring and a plurality of squeezing components; and the first separating mechanism includes a second shell, a screw, a first materialreceiving box, and a first air blower. In the invention, a squeezing degree to peanuts can be adjusted, peanut shell breaking efficiency is increased, the breakage rate of peanut kernels is reduced, and the peanut kernels and peanut shells can be completely separated so that the peanut kernels and the peanut shells can be collected.

The invention discloses a kettle opening structure with a rotationally storable handle. The kettle opening structure comprises a kettle opening ring, a lid and the handle. A spout is arranged on the front side of the kettle opening ring, a rotary seat is arranged on the rear side of the kettle opening ring, and the lid and the handle are rotationally connected with the rotary seat; a locking mechanism is arranged between the handle and the kettle opening ring and can be unlocked, and accordingly the handle can be upwardly turned over to be arranged above the lid. The kettle opening structure has the advantages that the kettle opening structure is simple and is convenient to operate, the handle can be turned over to be arranged above the lid, accordingly, the radial width of the kettle opening structure can be reduced, and storage and transportation can be facilitated.

The invention discloses a peanut shelling device. The device comprises a first shell, a disk, a first cylinder, a material splitting bench, a shelling mechanism and a first separating mechanism, wherein the first shell includes a first portion, a second portion and a third portion; the disk is arranged on the central section of the upper end of the first portion; the first cylinder is arranged inthe first portion; the upper portion of the material splitting bench is located in the first portion and a lower portion is optionally located in the first portion or in the second portion; the shelling mechanism includes a rotation body, a second cylinder, a first spring and a plurality of squeezing components; and the first separating mechanism includes a second shell, a screw, a first materialreceiving box, and a first air blower. In the invention, a squeezing degree to peanuts can be adjusted, peanut shell breaking efficiency is increased, the breakage rate of peanut kernels is reduced, and the peanut kernels and peanut shells can be completely separated so that the peanut kernels and the peanut shells can be collected.

The invention relates to a stator (1) for an electric machine of a motor vehicle, comprising a laminated core (2) having an inner side (4) with winding grooves (6) and having an outer side (5), windings (9), which are arranged in the winding grooves (6) and form winding heads (10) on axially opposing front faces (7, 8) of the laminated core (2), and a cooling jacket (11) which conducts cooling fluid and has a first metal sheet (12) which forms an inner wall of the cooling jacket (11) facing the laminated core (2), and a second metal sheet (13) which forms an outer wall of the cooling jacket (11) surrounding the inner wall, wherein an axial height (19) of the cooling jacket (11) exceeds an axial height (18) of the laminated core (2), and the cooling jacket (11) has a laminated-core coolingjacket region (21) for encasing the laminated core (2) and two axially opposing winding-head cooling jacket regions (22) adjoining the laminated-core cooling jacket region (21) for encasing the winding heads (10). The invention also relates to an electric machine and to a motor vehicle.

The invention belongs to the laser cladding technology, and provides a deep blind hole inner wall laser cladding device. The problems that existing laser cladding efficiency is low, and laser claddingmachining cannot be conducted on the inner wall of the root of a deep blind hole or is difficult are solved. The device comprises an optical fiber laser, a collimating mirror set, an integral mirror,an optical wedge and a protective lens, wherein the optical fiber laser is used for outputting a laser beam with a divergence angle; the collimating mirror set is positioned in an emergent light pathof the optical fiber laser and used for collimating the laser beam with the divergence angle output by the optical fiber laser into parallel circular light beams and transmitting the parallel circular light beams to the integral mirror; the integral mirror is used for reflecting the parallel circular light beams, and light spots of the reflected light beams at a molten pool are rectangular lightspots; the optical wedge is positioned in an emergent light path of the integral mirror and used for deflecting the light beams to the inner wall of the root of the machined deep blind hole; and the protective lens is positioned in an emergent light path of the optical wedge.

The invention discloses a stator insulation cover, a motor stator and a motor. The stator insulation cover is applied to the motor stator; the stator insulation cover comprises a plurality of arc-shaped shells; each arc-shaped shell comprises an outer insulation part, a side insulation part and an inner insulation part which are connected in sequence, wherein the outer insulation part and the inner insulation part are positioned on the same side of the side insulation part and are opposite to each other at an interval; the shells are sequentially spliced in the circumferential direction to form a circle and define an annular containing cavity used for containing the end of the stator winding; the outer insulation parts of the arc-shaped shells are used for covering the outer end face of the end of the stator winding; the side insulation parts of the arc-shaped shells are used for covering the outer circumferential face of the end of the stator winding; the inner insulation parts of the arc-shaped shells are used for covering the inner end face of the end part of the stator winding. The stator insulation cover is good in insulation protection effect, simple in structure and convenient to manufacture; the production efficiency of the motor stator can be effectively improved; and meanwhile, the end size of the stator winding can be effectively reduced; the production cost is reduced; and miniaturization of the motor is facilitated.

A multi-stage turbine (16) is designed as an induction turbine with vapour induction in at least one intermediary stage. It is more particularly conceived as a radial-outward-flow type multi-stage turbine, with an axial main vapour inlet port (82) and an annular secondary vapour inlet port (84), which is arranged in the turbine (16) so as to annularly induce, in an intermediary stage of said turbine, a secondary vapour stream into an already partially expanded radial main vapour stream. The annular secondary vapour inlet port (84) comprises as a ring-zone (92) with through holes (94), which radially surrounds said axial main vapour inlet port (82) in a first turbine housing part (80). The axial vapour inlet port comprises a first tubular vapour inlet connection (82). The annular vapour inlet port comprises a second tubular vapour inlet connection (84) surrounding the first tubular vapour inlet connection (82), so as to define with the latter an annular space (86), wherein the ring-zone (92) with through holes (94) is arranged in this annular space (86).