mhurhangee/patent-ind-claim-en huggingface dataset:
An industrial slicer comprising a cutting station (T) that includes: a plurality of blades for slicing a food product , said blades being parallel to one another and able to be spaced apart and drawn closer to each other in pairs so as to vary their distances with respect to each other, so as to obtain slices of said product having thicknesses corresponding to said distances; and adjustment means for adjusting said distances and comprising a plurality of adjustment devices that are adapted to act upon respective blades ; characterised in that the adjustment devices are adapted to move in translational motion along a direction transverse to the direction of longitudinal extension of the respective blades and at least two of said devices can be activated independently of each other. a plurality of blades for slicing a food product , said blades being parallel to one another and able to be spaced apart and drawn closer to each other in pairs so as to vary their distances with respect to each other, so as to obtain slices of said product having thicknesses corresponding to said distances; and adjustment means for adjusting said distances and comprising a plurality of adjustment devices that are adapted to act upon respective blades ; characterised in that the adjustment devices are adapted to move in translational motion along a direction transverse to the direction of longitudinal extension of the respective blades and at least two of said devices can be activated independently of each other.
A structured gel-filled cosmetic mask, comprising a fixing skeleton, a gel filling band and a free-flow gel layer in an integrally formed structure, wherein the fixing skeleton comprises a cavity of a concave structure, the cavity is filled with a premade filling material to form the gel filling band, and the gel in the gel filling band extends outward to form the free-flow gel layer.
A pressure foot device for applying an elongate fiber tow onto an object surface , the device comprising: a foot surface , comprising a straight foot segment configured to press the fiber tow onto the object surface , characterized in that : the straight foot segment comprises a rear end and a front end that define a frontal direction (Fx) from the rear end to the front end; and a groove comprising a left lip and a right lip , configured to guide the fiber tow to the foot surface , the groove defining a groove midplane as a planar portion along a mid-line of the groove and extending until between the left lip and the right lip of the groove , the groove joining onto the front end of the straight foot segment and oriented at an elevation angle with respect to the straight foot segment , wherein the groove comprises a flared end that joins with the foot surface . a foot surface , comprising a straight foot segment configured to press the fiber tow onto the object surface , characterized in that : the straight foot segment comprises a rear end and a front end that define a frontal direction (Fx) from the rear end to the front end; and a groove comprising a left lip and a right lip , configured to guide the fiber tow to the foot surface , the groove defining a groove midplane as a planar portion along a mid-line of the groove and extending until between the left lip and the right lip of the groove , the groove joining onto the front end of the straight foot segment and oriented at an elevation angle with respect to the straight foot segment , wherein the groove comprises a flared end that joins with the foot surface . the straight foot segment comprises a rear end and a front end that define a frontal direction (Fx) from the rear end to the front end; and a groove comprising a left lip and a right lip , configured to guide the fiber tow to the foot surface , the groove defining a groove midplane as a planar portion along a mid-line of the groove and extending until between the left lip and the right lip of the groove , the groove joining onto the front end of the straight foot segment and oriented at an elevation angle with respect to the straight foot segment , wherein the groove comprises a flared end that joins with the foot surface .
A method of separating a species from a droplet using a digital microfluidic device comprising a digital microfluidic array of electrodes comprising a hydrophobic coating, said array of electrodes further comprising an input array , a separation array in flow communication with said input array , and an output array in flow communication with said separation array , wherein said input array , said separation array and said output array each comprise more than one electrode, said device further comprising a structural retaining means configured to retain a non-polar liquid within said separation array , wherein the species is non-polar and the droplet is polar, said method comprising the steps of: providing the non-polar liquid over the separation array ; actuating said input array to transport said droplet from said input array to said separation array , wherein said species is extracted from said droplet while maintaining said droplet as a distinct liquid phase within said non-polar liquid; and actuating said separation array to transport said droplet from said separation array to said output array ; characterized in that said non-polar liquid is retained by said structural retaining means comprising a wall means , said wall means surrounding a portion of said separation array , wherein said wall means does not interrupt a path of said droplet during said steps of transporting said droplet to said separation array and transporting said droplet to said output array . providing the non-polar liquid over the separation array ; actuating said input array to transport said droplet from said input array to said separation array , wherein said species is extracted from said droplet while maintaining said droplet as a distinct liquid phase within said non-polar liquid; and actuating said separation array to transport said droplet from said separation array to said output array ; characterized in that said non-polar liquid is retained by said structural retaining means comprising a wall means , said wall means surrounding a portion of said separation array , wherein said wall means does not interrupt a path of said droplet during said steps of transporting said droplet to said separation array and transporting said droplet to said output array .
An under-screen biometric identification apparatus, arranged under a display screen having a display area, the under-screen biometric identification apparatus comprising: a fixing support ; and a biometric identification module mounted to the fixing support and disposed under the display screen through the fixing support , wherein a biometric capturing area of the biometric identification module is located in the display area of the display screen ; wherein the under-screen biometric identification apparatus is applied to a terminal device , and a middle frame of the terminal device is used as the fixing support ; the middle frame is formed with a hole in a mounting area of the biometric identification module ; and characterized in that , the biometric identification module is fixed to an area of a lower surface of the middle frame located around the hole ; and the biometric identification module is fixed to the middle frame without contacting to the display screen , so as to form a gap between the biometric identification module and the display screen ; wherein an upper surface of the middle frame is provided with a bevel angle formed by chamfering processing at an edge of the hole , and the bevel angle enables a width of the hole on the upper surface of the middle frame to be greater than a width of the hole on the lower surface of the middle frame. a fixing support ; and a biometric identification module mounted to the fixing support and disposed under the display screen through the fixing support , wherein a biometric capturing area of the biometric identification module is located in the display area of the display screen ; wherein the under-screen biometric identification apparatus is applied to a terminal device , and a middle frame of the terminal device is used as the fixing support ; the middle frame is formed with a hole in a mounting area of the biometric identification module ; and characterized in that , the biometric identification module is fixed to an area of a lower surface of the middle frame located around the hole ; and the biometric identification module is fixed to the middle frame without contacting to the display screen , so as to form a gap between the biometric identification module and the display screen ; wherein an upper surface of the middle frame is provided with a bevel angle formed by chamfering processing at an edge of the hole , and the bevel angle enables a width of the hole on the upper surface of the middle frame to be greater than a width of the hole on the lower surface of the middle frame.
An image recording apparatus that irradiates a recording target (RL) with laser light and records an image thereon, the image recording apparatus comprising: a laser irradiation device that has plural laser emitting elements , and irradiates the recording target with laser light emitted from the plural laser emitting elements; characterized by an irradiation condition adjusting unit that causes the laser irradiation device to emit laser light such that a part of an image dot recorded on the recording target moving relatively to the laser irradiation device overlaps an image dot adjacent thereto, and that makes a laser irradiation condition for when image dots forming a boundary between a colored portion and a non-colored portion are recorded, different from a laser irradiation condition for when the other image dots are recorded; and an output control unit that controls the irradiation with laser light by the laser irradiation device, based on the laser irradiation condition adjusted by the irradiation condition adjusting unit. a laser irradiation device that has plural laser emitting elements , and irradiates the recording target with laser light emitted from the plural laser emitting elements; characterized by an irradiation condition adjusting unit that causes the laser irradiation device to emit laser light such that a part of an image dot recorded on the recording target moving relatively to the laser irradiation device overlaps an image dot adjacent thereto, and that makes a laser irradiation condition for when image dots forming a boundary between a colored portion and a non-colored portion are recorded, different from a laser irradiation condition for when the other image dots are recorded; and an output control unit that controls the irradiation with laser light by the laser irradiation device, based on the laser irradiation condition adjusted by the irradiation condition adjusting unit.
A system, comprising: a first valve removal (VR) plug , comprising a sensor configured to sense a characteristic of a volume adjacent to the first VR plug and a wireless transmitter or transceiver configured to wirelessly transmit a signal indicative of the sensed characteristic, wherein the first VR plug is configured to form a first seal with a flange of a mineral extraction component and to be removable; a VR plug housing , comprising: a first flange configured to be disposed about the VR plug and to couple to the flange of the mineral extraction component; a second flange a receiver configured to receive the wirelessly transmitted signal indicative of the sensed characteristic; a communications port or plug ; and a connector which communicatively couples the receiver with the communications port or plug . a first valve removal (VR) plug , comprising a sensor configured to sense a characteristic of a volume adjacent to the first VR plug and a wireless transmitter or transceiver configured to wirelessly transmit a signal indicative of the sensed characteristic, a sensor configured to sense a characteristic of a volume adjacent to the first VR plug and a wireless transmitter or transceiver configured to wirelessly transmit a signal indicative of the sensed characteristic, wherein the first VR plug is configured to form a first seal with a flange of a mineral extraction component and to be removable; a VR plug housing , comprising: a first flange configured to be disposed about the VR plug and to couple to the flange of the mineral extraction component; a second flange a receiver configured to receive the wirelessly transmitted signal indicative of the sensed characteristic; a communications port or plug ; and a connector which communicatively couples the receiver with the communications port or plug . a first flange configured to be disposed about the VR plug and to couple to the flange of the mineral extraction component; a second flange a receiver configured to receive the wirelessly transmitted signal indicative of the sensed characteristic; a communications port or plug ; and a connector which communicatively couples the receiver with the communications port or plug .
An emergency stop switch , having: - a switch mechanism with a manually operable switch and with a first contact element which is rigidly operatively connected to the switch , wherein the switch is configured, upon actuation of the switch , to bring the first contact element into contact with a second contact element to trigger an emergency stop function, and - a cable mechanism with a switch tongue guided in a switch tongue guide , wherein the switch tongue is configured to be connected to a first end of a cable , wherein a switch tongue spring preloads the switch tongue during operation in a direction away from the cable , wherein the cable is connected on its second end with preload to an equalizing spring during operation, wherein the first contact element is operatively connected to the switch tongue in such a way that the switch tongue , when the preloaded cable is pulled, is guided in the switch tongue guide in the direction of the cable , opposing a spring force of the switch tongue spring , and in the process brings the first contact element into contact with the second contact element in order to trigger the emergency stop function by means of the cable pull mechanism . - a switch mechanism with a manually operable switch and with a first contact element which is rigidly operatively connected to the switch , wherein the switch is configured, upon actuation of the switch , to bring the first contact element into contact with a second contact element to trigger an emergency stop function, and - a cable mechanism with a switch tongue guided in a switch tongue guide , wherein the switch tongue is configured to be connected to a first end of a cable , wherein a switch tongue spring preloads the switch tongue during operation in a direction away from the cable , wherein the cable is connected on its second end with preload to an equalizing spring during operation,
A low-ice-adhesion coating comprising a microstructure characterized in that said microstructure contains at least a first-material solid phase and a second-material solid phase that is microphase-separated from said first-material solid phase on an average length scale of phase inhomogeneity from about 1 micron to about 100 microns, wherein said phase inhomogeneity of said microstructure results in low ice adhesion of said coating, characterized in that said coating, when subjected to an AMIL Centrifuge Ice Adhesion Test, generates an AMIL Centrifuge Ice Adhesion Reduction Factor of about 10 or more, wherein one of said first-material phase and said second-material phase is hygroscopic, and the other comprises a low-surface-energy polymer having a surface energy between about 5 mJ/m 2 to about 50 mJ/m 2 , wherein said hygroscopic material is selected from the group consisting of poly(acrylic acid), poly(ethylene glycol), poly(2-hydroxyethyl methacrylate), poly(vinyl imidazole), poly(2-methyl-2-oxazoline), poly(2-ethyl-2-oxazoline), poly(vinylpyrolidone), cellulose, modified cellulose, carboxymethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, methyl cellulose, hydrogels, PEG diacryalate, monoacrylate, and combinations thereof, and wherein said low-surface-energy polymer is a fluoropolymer. wherein one of said first-material phase and said second-material phase is hygroscopic, and the other comprises a low-surface-energy polymer having a surface energy between about 5 mJ/m 2 to about 50 mJ/m 2 , wherein said hygroscopic material is selected from the group consisting of poly(acrylic acid), poly(ethylene glycol), poly(2-hydroxyethyl methacrylate), poly(vinyl imidazole), poly(2-methyl-2-oxazoline), poly(2-ethyl-2-oxazoline), poly(vinylpyrolidone), cellulose, modified cellulose, carboxymethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, methyl cellulose, hydrogels, PEG diacryalate, monoacrylate, and combinations thereof, and wherein said low-surface-energy polymer is a fluoropolymer.
A wax coated article comprising a composite cellulosic material which is an oriented strand board (OSB) having a surface including a wax coating, wherein the wax coating comprises a wax composition having a kinematic viscosity as measured in accordance with ASTM D-445 at 100°C of ≤ 13.1 mm 2 /s and a contact angle on glass measured as detailed in the description of ≤ 34.4°, wherein the wax composition is a wax blend of one or more of the group consisting of slack wax, bright stock slack wax, asphalt, triglyceride based wax, polymer wax, tallow wax, soy wax, palm wax and combinations thereof.
A method of generating a tactile signal using a haptic device , the haptic device comprising: a database configured to store acoustic information or receive acoustic information from an external device; a controller configured to convert the acoustic information into an electrical signal corresponding to a predetermined pattern; and a tactile actuator configured to provide a user with a tactile signal, and the method comprising: collecting driving information , the driving information including the acoustic information; determining one of a plurality of preset driving modes based on the collected driving information; determining the electrical signal to have a frequency in a frequency range corresponding to the determined driving mode; and applying the electrical signal to the tactile actuator , wherein the plurality of preset driving modes include two or more modes in which the tactile actuator is driven according to the electrical signal applied to the tactile actuator , and wherein the step of collecting driving information comprises interpreting details of the acoustic information based on a five-line staff. a database configured to store acoustic information or receive acoustic information from an external device; a controller configured to convert the acoustic information into an electrical signal corresponding to a predetermined pattern; and a tactile actuator configured to provide a user with a tactile signal, and the method comprising: collecting driving information , the driving information including the acoustic information; determining one of a plurality of preset driving modes based on the collected driving information; determining the electrical signal to have a frequency in a frequency range corresponding to the determined driving mode; and applying the electrical signal to the tactile actuator , wherein the plurality of preset driving modes include two or more modes in which the tactile actuator is driven according to the electrical signal applied to the tactile actuator , and wherein the step of collecting driving information comprises interpreting details of the acoustic information based on a five-line staff. collecting driving information , the driving information including the acoustic information; determining one of a plurality of preset driving modes based on the collected driving information; determining the electrical signal to have a frequency in a frequency range corresponding to the determined driving mode; and applying the electrical signal to the tactile actuator , wherein the plurality of preset driving modes include two or more modes in which the tactile actuator is driven according to the electrical signal applied to the tactile actuator , and wherein the step of collecting driving information comprises interpreting details of the acoustic information based on a five-line staff.
A tool comprising a holder body (2;2') having a pocket (3;3'), a cutting insert (5;5') and a nozzle (10;10'), said nozzle (10;10') having a single through hole (11;11') for a fastening member (12;12'), said nozzle having a forward end (13;13'), a rear end (14;14') and a bottom face (15;15'), said through hole extending between the bottom face and an opposite top face (16;16'), at least one internal coolant channel (17;17') being provided in the nozzle and extending from a first opening (18;18') to a second opening (19;19'), said first opening connecting to a coolant supply conduit in the holder body, said second opening serving as exit for the coolant at the forward end, wherein the at least one coolant channel (17;17') and the first opening (18;18') are spaced from the through hole (11;11'), wherein the bottom face (15;15') of the nozzle comprises a guide device such as a projection or recess adjacent to the forward end (13;13') to set the direction of the nozzle , characterized in that it further comprises a clamping means in the shape of a locking member (4;4'), and in that the direction of the nozzle is set by having the guide device cooperating with a recess or projection on the clamping means.
An isolated peptide or modified peptide selected from the group consisting of: Lys-DAla-DVal-Asp, Ac-Lys-DAla-DVal-Asp, Mpr-Lys-DAla-DVal-Asp, PEG-Lys-DAla-DVal-Asp, PEG-Ac-Lys-DAla-DVal-Asp, PEG-Mpr-Lys-DAla-DVal-Asp, Lys-DAla-Val-Asp, Ac-Lys-DAla-Val-Asp, Mpr-Lys-DAla-Val-Asp, PEG-Lys-DAla-Val-Asp, PEG-Ac-Lys-DAla-Val-Asp, PEG-Mpr-Lys-DAla-Val-Asp, Lys-Ala-DVal-Asp, Ac-Lys-Ala-DVal-Asp, Mpr-Lys-Ala-DVal-Asp, PEG-Lys-Ala-DVal-Asp, PEG-Mpr-Lys-Ala-DVal-Asp, and PEG-Mpr-Lys-Ala-DVal-Asp, wherein the carboxy terminal group of the peptide is OH, OCH 3 , or NH 2 group. Lys-DAla-DVal-Asp, Ac-Lys-DAla-DVal-Asp, Mpr-Lys-DAla-DVal-Asp, PEG-Lys-DAla-DVal-Asp, PEG-Ac-Lys-DAla-DVal-Asp, PEG-Mpr-Lys-DAla-DVal-Asp, Lys-DAla-Val-Asp, Ac-Lys-DAla-Val-Asp, Mpr-Lys-DAla-Val-Asp, PEG-Lys-DAla-Val-Asp, PEG-Ac-Lys-DAla-Val-Asp, PEG-Mpr-Lys-DAla-Val-Asp, Lys-Ala-DVal-Asp, Ac-Lys-Ala-DVal-Asp, Mpr-Lys-Ala-DVal-Asp, PEG-Lys-Ala-DVal-Asp, PEG-Mpr-Lys-Ala-DVal-Asp, and PEG-Mpr-Lys-Ala-DVal-Asp,