mhurhangee/patent-ind-claim-en huggingface dataset:
A scrap matrix winding device for continuous label paper having a peeling roller which conveys the continuous label paper on which a half-cutting process has been performed and separates the continuous label paper into a cut product adhered to backing paper and a scrap matrix , the scrap matrix winding device comprising: a scrap matrix winding shaft provided separately from the peeling roller and configured to wind the scrap matrix in a roll shape; and a movement mechanism which is able to move the scrap matrix winding shaft away from the peeling roller , characterized in that the scrap matrix winding device further comprises: a first detecting portion provided in a conveying path of the continuous label paper and configured to detect a conveyance amount of the continuous label paper ; a second detecting portion configured to detect one rotation of the scrap matrix winding shaft ; and a calculation unit configured to obtain a roll diameter (D) of the scrap matrix wound around the scrap matrix winding shaft on the basis of detection results of the first detecting portion and the second detecting portion each time the scrap matrix winding shaft makes one rotation, wherein control of moving the scrap matrix winding shaft away from the peeling roller is performed on the basis of the roll diameter (D) obtained by the calculation unit . a scrap matrix winding shaft provided separately from the peeling roller and configured to wind the scrap matrix in a roll shape; and a movement mechanism which is able to move the scrap matrix winding shaft away from the peeling roller , the scrap matrix winding device further comprises: a first detecting portion provided in a conveying path of the continuous label paper and configured to detect a conveyance amount of the continuous label paper ; a second detecting portion configured to detect one rotation of the scrap matrix winding shaft ; and a calculation unit configured to obtain a roll diameter (D) of the scrap matrix wound around the scrap matrix winding shaft on the basis of detection results of the first detecting portion and the second detecting portion each time the scrap matrix winding shaft makes one rotation, wherein a first detecting portion provided in a conveying path of the continuous label paper and configured to detect a conveyance amount of the continuous label paper ; a second detecting portion configured to detect one rotation of the scrap matrix winding shaft ; and a calculation unit configured to obtain a roll diameter (D) of the scrap matrix wound around the scrap matrix winding shaft on the basis of detection results of the first detecting portion and the second detecting portion each time the scrap matrix winding shaft makes one rotation, wherein control of moving the scrap matrix winding shaft away from the peeling roller is performed on the basis of the roll diameter (D) obtained by the calculation unit .
A power device , capable of powering different types of tool bodies each comprising a working component and a tool control unit ; wherein the power device is detachably connectable to a tool body , and the power device comprises motor and a power control unit for controlling the motor ; and the power control unit is configured to receive a control instruction transmitted by the tool control unit , and to control the motor according to the control instruction, to drive the working component of the tool body when the power device is mounted on a tool body ; wherein the power control unit has a program block, the program block has a default value, the tool control unit is configured to convert the control instruction into a control parameter corresponding to the control instruction and is configured to transmit the control parameter to the power control unit , and the power control unit is configured to receive the control parameter and to convert the control parameter into a control instruction, and to write the control instruction to the default value to form a complete program block to control the operation of the motor . wherein the power device is detachably connectable to a tool body , and the power device comprises motor and a power control unit for controlling the motor ; and the power control unit is configured to receive a control instruction transmitted by the tool control unit , and to control the motor according to the control instruction, to drive the working component of the tool body when the power device is mounted on a tool body ; wherein the power control unit has a program block, the program block has a default value, the tool control unit is configured to convert the control instruction into a control parameter corresponding to the control instruction and is configured to transmit the control parameter to the power control unit , and the power control unit is configured to receive the control parameter and to convert the control parameter into a control instruction, and to write the control instruction to the default value to form a complete program block to control the operation of the motor .
A vacuum pump (P1, P2, P3) comprising: a pump base (B) that is divided at least into an upper base portion (B1) and a lower base portion (B2), wherein the upper base portion and the lower base portion resulting from the division are joined together with a fastening means and are structured so as to conduct heat to and from each other, a rotor arranged on the pump base, a plurality of turbomolecular pump rotor blades disposed on an outer peripheral surface of the rotor, a plurality of turbomolecular pump stator blades disposed alternately, a plurality of turbomolecular pump stator blade spacers positioning the plurality of turbomolecular pump stator blades , a supporting and driving means for supporting the rotor so as to enable the rotor to rotate around an axis thereof and rotationally driving the rotor, and a gas channel (R) through which gas sucked by rotation of the rotor is guided to an outlet port, wherein the vacuum pump further comprises: a heat insulating means for thermally insulating a stator component , which forms an exhaust side gas channel (R2) in the gas channel (R), from the other components; a heating means for heating the stator component which forms the exhaust side gas channel (R2) in the gas channel (R) thermally insulated by the heat insulating means; characterized in that the vacuum pump further comprises: cooling means provided in both the upper base portion (B1) and the lower base portion (B2), wherein each of the cooling means is provided with a valve adjusting a supply of a cooling media flowing in the cooling means , wherein a temperature sensor (S2) is provided near the cooling means provided in the upper base portion (B1), and the valves being controlled based on a signal of the temperature sensor (S2). a pump base (B) that is divided at least into an upper base portion (B1) and a lower base portion (B2), wherein the upper base portion and the lower base portion resulting from the division are joined together with a fastening means and are structured so as to conduct heat to and from each other, a rotor arranged on the pump base, a plurality of turbomolecular pump rotor blades disposed on an outer peripheral surface of the rotor, a plurality of turbomolecular pump stator blades disposed alternately, a plurality of turbomolecular pump stator blade spacers positioning the plurality of turbomolecular pump stator blades , a supporting and driving means for supporting the rotor so as to enable the rotor to rotate around an axis thereof and rotationally driving the rotor, and a gas channel (R) through which gas sucked by rotation of the rotor is guided to an outlet port, wherein the vacuum pump further comprises: a heat insulating means for thermally insulating a stator component , which forms an exhaust side gas channel (R2) in the gas channel (R), from the other components; a heating means for heating the stator component which forms the exhaust side gas channel (R2) in the gas channel (R) thermally insulated by the heat insulating means;
A pipe fitting for coupling pipes together, the pipe fitting having a body with at least two substantially cylindrical rigid open ends , each end for joining to an end of a pipe, a spring section intermediate two of the at least two substantially rigid open ends that has a spring configuration defined by at least one slot and at least one spring member ; and a sleeve surrounding the spring section , the sleeve being formed from an elastomeric material that fluidly seals the slot(s) in the spring section , characterized in that the spring configuration is non-helical.
A compound or a pharmaceutically acceptable salt thereof, wherein the compound is 1-[[ -3-methyl-6-(4,4,4-trifluorobutoxy)-3,4-dihydronaphthalen-2-yl]methyl]azetidine-3-carboxylic acid:
Weft feeder device comprising a winding drum with an adjustable winding circumference for storing weft thread and with a drum axis , and comprising a drive mechanism that comprises a central drive wheel arranged coaxially with respect to the drum axis , wherein the winding drum comprises at least one drum segment (3, 4, 5; 30, 40, 50) mounted so as to be moveable in a radial direction about the drum axis , wherein the drum segment (3, 4, 5; 30, 40, 50) comprises at least a first side leg extending along a side of the central drive wheel , wherein the first side leg is a driven leg (11, 12, 13; 110, 120, 130) drivingly coupled to the drive wheel , characterized in that the drive mechanism further comprises at least one wire strand extending along the periphery of the central drive wheel for a motion transmission from the drive wheel to the driven leg (11, 12, 13; 110, 120, 130), which at least one wire strand is fixed to the driven leg (11, 12, 13; 110, 120, 130) and to the central drive wheel .
Pneumatic vehicle tyre having a tread which is of directional design and which has oblique channels , which run over the tread width in a V-shaped manner in relation to one another, as main channels, which in each tread half delimit elongated profile blocks which are arranged in succession in the circumferential direction and extend up to the edge of the tread, wherein the elongated profile blocks are each crossed by at least two grooves , which run in a straight manner in plan view and which open into the oblique channels , wherein the grooves running in one tread half are inclined in relation to the grooves running in the other tread half in the opposite direction with respect to the circumferential direction of the tyre, wherein those ends of the grooves that are situated at the outer side of the tread come into contact with the ground first during forward travel, and wherein, in each tread half, the angle that the grooves form with the circumferential direction decreases from groove to groove with increasing distance of the position thereof from the equatorial plane, characterized in that the groove centre lines (M N4a ) of grooves running closest to the equatorial plane form with tangents (T 1 ), which are created on the channel centre lines (M R ) of the oblique channels and run through points of intersection between the groove centre lines (M N4a ) and the channel centre lines (M R ), angles (γ, γ') that deviate from 90° by up to 20° and in that the groove centre lines (M N4b ) of grooves running furthest towards the outer side of the tread form with tangents (T 2 ), which are created on the channel centre lines (M R ) of the oblique channels and run through points of intersection between the groove centre lines (M N4b ) and the channel centre lines (M R ), angles (δ, δ') that deviate from 90° by 15° to 30°, wherein the grooves have in the radial direction a depth (t 1 ) of 40% to 60% of the respectively provided profile depth and have at the periphery of the tread a width (b 1 ) of 2.4 mm to 3.0 mm and wherein the grooves are each provided with a sipe of a constant width (B 2 ) of 0.2 mm to 0.7 mm which, starting from the middle of the groove base thereof, extends in the radial direction and in plan view runs along the groove centre line (M N4a , M N4b ) and opens into the oblique channels .
An antenna packaged substrate , comprising: a substrate ; a first antenna radiating patch disposed on a surface of the substrate , and a second antenna radiating patch disposed over the first antenna radiating patch ; and a dielectric stack disposed between the first antenna radiating patch and the second antenna radiating patch , wherein the dielectric stack comprises a first dielectric layer , a bonding layer disposed on a side that is of the first dielectric layer and faces the first antenna radiating patch , and a second dielectric layer disposed on a side that is of the first dielectric layer and faces the second antenna radiating patch , wherein a dielectric constant of the first dielectric layer is lower than a dielectric constant of the substrate , and an expansion coefficient of the second dielectric layer is lower than an expansion coefficient of the first dielectric layer , wherein a material of the first dielectric layer comprises a polytetrafluoroethylene material. a substrate ; a first antenna radiating patch disposed on a surface of the substrate , and a second antenna radiating patch disposed over the first antenna radiating patch ; and a dielectric stack disposed between the first antenna radiating patch and the second antenna radiating patch , wherein the dielectric stack comprises a first dielectric layer , a bonding layer disposed on a side that is of the first dielectric layer and faces the first antenna radiating patch , and a second dielectric layer disposed on a side that is of the first dielectric layer and faces the second antenna radiating patch , wherein a dielectric constant of the first dielectric layer is lower than a dielectric constant of the substrate , and an expansion coefficient of the second dielectric layer is lower than an expansion coefficient of the first dielectric layer , wherein a material of the first dielectric layer comprises a polytetrafluoroethylene material.
A magnetic attraction connection structure, which is applicable to a combination partition, the magnetic attraction connection structure comprising a main body , the main body having a peripheral edge on which at least one connection surface is defined, the main body being provided with at least one movement space that is formed in an interior of the peripheral edge at one side of the connection surface , the movement space being provided with a magnet arranged in an interior thereof, the movement space being of a size that is sufficient to allow the magnet to move in a direction toward the connection surface or to rotate by an angle; wherein the peripheral edge of the main body forms a frame, and the frame is provided, on each of an upper side and a lower side thereof, with a surface panel to jointly form a configuration of a board; and wherein the connection surface of the main body is orientable to face another main body to allow the outside surfaces thereof to contact with each other at location corresponding to the magnets , and the magnets arranged in the movement spaces of the main body and said another main body automatically move or rotate, by means of magnetic attraction between opposite magnetic polarities, to mutually and magnetically attract each other, so as to have the connection surfaces of the two main bodies fix to each other through connection resulting from magnetically attracting each other, to thereby form a partition structure; characterised in that the peripheral edge of the main body is provided, in the interior thereof, with a separation plate , which defines a channel in the peripheral edge and multiple blockers of different sizes are disposed in the channel to delimit the movement space . wherein the peripheral edge of the main body forms a frame, and the frame is provided, on each of an upper side and a lower side thereof, with a surface panel to jointly form a configuration of a board; and wherein the connection surface of the main body is orientable to face another main body to allow the outside surfaces thereof to contact with each other at location corresponding to the magnets , and the magnets arranged in the movement spaces of the main body and said another main body automatically move or rotate, by means of magnetic attraction between opposite magnetic polarities, to mutually and magnetically attract each other, so as to have the connection surfaces of the two main bodies fix to each other through connection resulting from magnetically attracting each other, to thereby form a partition structure; characterised in that the peripheral edge of the main body is provided, in the interior thereof, with a separation plate , which defines a channel in the peripheral edge and multiple blockers of different sizes are disposed in the channel to delimit the movement space .
A method of inspecting at least one feature of a part , the at least one feature having a predetermined nominal shape, comprising: i) loading a contact probe onto a probe mount of a coordinate positioning apparatus which is configured to facilitate the exchanging of probes thereon and which is configured to facilitate relative movement of the probe mount and the part in three orthogonal degrees of freedom, the contact probe comprising a reference member for engaging the part, and the contact probe further comprising a stylus , the stylus being deflectable relative to the reference member and having a tip for contacting the surface to be measured, wherein the relative position of the tip and the reference member is transduced; ii) bringing the reference member and the stylus of the contact probe into contact with the part on one side of the feature, and then causing the stylus to traverse the feature whilst collecting measurement data concerning the relative position of the tip and the reference member; and iii) extracting dimension information about the feature from the measurement data, and comparing the extracted dimension information to nominal dimension information for the nominal shape of the feature of the part. i) loading a contact probe onto a probe mount of a coordinate positioning apparatus which is configured to facilitate the exchanging of probes thereon and which is configured to facilitate relative movement of the probe mount and the part in three orthogonal degrees of freedom, the contact probe comprising a reference member for engaging the part, and the contact probe further comprising a stylus , the stylus being deflectable relative to the reference member and having a tip for contacting the surface to be measured, wherein the relative position of the tip and the reference member is transduced; ii) bringing the reference member and the stylus of the contact probe into contact with the part on one side of the feature, and then causing the stylus to traverse the feature whilst collecting measurement data concerning the relative position of the tip and the reference member; and iii) extracting dimension information about the feature from the measurement data, and comparing the extracted dimension information to nominal dimension information for the nominal shape of the feature of the part.
A method of manufacturing a plurality of devices with six-sided protected walls, the method comprising the following sequence of ordered steps: (a) Fabricating the plurality of devices on a wafer; (b) forming a plurality of contact pads on each of the plurality of devices; (c) cutting a first trench around each of the plurality of devices from a backside of the wafer with an active side having a plurality of contact pads facing down; (d) applying a protective coating on the backside of the wafer thus filling the first trench with a protective material, being an electrical insulator, of the protective coating on the backside; (e) cutting a second trench from the active side, wherein the second trench extends to end of the first trench; (f) applying a protective layer on the active side of the devices and including filling the second trench with the material of the protective coating on the active side thus making a wall through a combination of the first trench and the second trench, the wall fully filled with the material of the protective layer on the backside and the protective layer on the active side; (g) grinding the protective layer on the active side to expose the plurality of contact pads; and (h) singulating each of the plurality of devices by cutting through the wall substantially in middle across a thickness of the wafer. (a) Fabricating the plurality of devices on a wafer; (b) forming a plurality of contact pads on each of the plurality of devices; (c) cutting a first trench around each of the plurality of devices from a backside of the wafer with an active side having a plurality of contact pads facing down; (d) applying a protective coating on the backside of the wafer thus filling the first trench with a protective material, being an electrical insulator, of the protective coating on the backside; (e) cutting a second trench from the active side, wherein the second trench extends to end of the first trench; (f) applying a protective layer on the active side of the devices and including filling the second trench with the material of the protective coating on the active side thus making a wall through a combination of the first trench and the second trench, the wall fully filled with the material of the protective layer on the backside and the protective layer on the active side; (g) grinding the protective layer on the active side to expose the plurality of contact pads; and (h) singulating each of the plurality of devices by cutting through the wall substantially in middle across a thickness of the wafer.