mhurhangee/patent-ind-claim-en huggingface dataset:
A method for imprinting a pattern on edges of a leather substrate, comprising the steps of: burnishing edges of the leather substrate; application of an adhesion promoter on the edges of the leather substrate, followed by drying for a pre-defined period of time; application of the adhesion promoter on a transfer film comprising a pattern; transferring of the pattern from the transfer film to the edge of the leather substrate on application of pressure and temperature, followed by drying for a pre-defined period of time; removal of the transfer film; application of a first chemical coat on the edge of the leather substrate and drying for a predefined period of time; and application of a second chemical coat on the first chemical coat and drying for a pre-defined period of time, characterized in that , a pattern is imprinted on the edge across the perimeter of the leather substrate. burnishing edges of the leather substrate; application of an adhesion promoter on the edges of the leather substrate, followed by drying for a pre-defined period of time; application of the adhesion promoter on a transfer film comprising a pattern; transferring of the pattern from the transfer film to the edge of the leather substrate on application of pressure and temperature, followed by drying for a pre-defined period of time; removal of the transfer film; application of a first chemical coat on the edge of the leather substrate and drying for a predefined period of time; and application of a second chemical coat on the first chemical coat and drying for a pre-defined period of time, characterized in that , a pattern is imprinted on the edge across the perimeter of the leather substrate.
A subband switching method between subbands in a communication technology system, the method, comprising: receiving (S2), by a terminal, identification information of a target subband in a cell having a cell identity from a network device , wherein the identification information is associated with configuration information of the target subband, such that the configuration information of the target subband is known based on the identification information; and switching (S4), by the terminal, to the target subband, according to the configuration information of the target subband; wherein the configuration information comprises subcarrier space. receiving (S2), by a terminal, identification information of a target subband in a cell having a cell identity from a network device , wherein the identification information is associated with configuration information of the target subband, such that the configuration information of the target subband is known based on the identification information; and switching (S4), by the terminal, to the target subband, according to the configuration information of the target subband; wherein the configuration information comprises subcarrier space.
An optical fiber route search method that confirms a path of one optical fiber which has only two opposite ends, for which there is no optical power division on an optical transmission line and which is arranged in a space so as to include at least one proximity portion in which the optical fiber is in proximity to itself, wherein the proximity portion is a portion in which wires of the optical fiber are parallel to each other, branch out, or intersect with each other, the optical fiber route search method comprising: performing (S01) optical measurement of inputting test light to the optical fiber while applying a disturbance (G) to an arbitrary section of the optical fiber , wherein the disturbance (G) is applied to a first arbitrary section of the optical fiber and applied to a second arbitrary section by changing the position in which the disturbance is applied, and obtaining a distribution of response light of the test light in a length direction of the optical fiber ; performing (S02) a singularity detection of detecting a change in a number of singularities that appear in the distribution of the response light based on a position of the optical fiber in which the disturbance (G) has been applied; and performing (S03) a determination of determining that the proximity portion exists in the position of the optical fiber in which the disturbance (G) has been applied when the number of the singularities has changed due to a change in a position of application of the disturbance (G), and estimating a status of an arrangement of the optical fiber connecting to the proximity portion. performing (S01) optical measurement of inputting test light to the optical fiber while applying a disturbance (G) to an arbitrary section of the optical fiber , wherein the disturbance (G) is applied to a first arbitrary section of the optical fiber and applied to a second arbitrary section by changing the position in which the disturbance is applied, and obtaining a distribution of response light of the test light in a length direction of the optical fiber ; performing (S02) a singularity detection of detecting a change in a number of singularities that appear in the distribution of the response light based on a position of the optical fiber in which the disturbance (G) has been applied; and performing (S03) a determination of determining that the proximity portion exists in the position of the optical fiber in which the disturbance (G) has been applied when the number of the singularities has changed due to a change in a position of application of the disturbance (G), and estimating a status of an arrangement of the optical fiber connecting to the proximity portion.
Switching device for switching on or off a consumer, in particular an engine in a vehicle, having a housing , an actuating element , a switching element and a display , wherein the display is arranged on the actuating element , the switching element can be activated by the actuating element , at least one switching signal for a control unit can be generated by means of the switching element , the switching element being a piezo switch, the piezo switch being arranged in such a way that it receives the switching signal on insertion of the actuating element into the housing , wherein the actuating element and the display are both integrally formed, wherein the switching element is formed like a foil, the switching element being arranged between the housing and the display , the display being connected via a bus system to at least one information source , the bus system serving for an uni and/or bidirectional exchange of at least one piece of information between the display and the information source , the information being displayable on the display , wherein a state of the vehicle can be indicated on the display , wherein a starting and/or stopping readiness of the engine can be indicated on the display .
A security system for a vehicle wheel , the security system comprising: • a replacement wheel connector for connecting the vehicle wheel to a vehicle, the wheel connector comprising a body , a head connected to one end of the body and an extension from the head , the extension being smaller than the head , and • a locking device comprising: ∘ an elongate body , ∘ a locking collar extending from one side of the elongate body and for connecting to the extension of the head of the wheel connector , ∘ a locking mechanism contained within the elongate body and for locking the locking collar onto the extension of the head of the wheel connector , and ∘ an elongate bar extending from the one side of the elongate body and for passing through the vehicle wheel , wherein the locking collar extending from one side of the elongate body of the locking device is height adjustable such that the extension of the locking collar from the one side of the elongate body is adjustable. • a replacement wheel connector for connecting the vehicle wheel to a vehicle, the wheel connector comprising a body , a head connected to one end of the body and an extension from the head , the extension being smaller than the head , and • a locking device comprising: ∘ an elongate body , ∘ a locking collar extending from one side of the elongate body and for connecting to the extension of the head of the wheel connector , ∘ a locking mechanism contained within the elongate body and for locking the locking collar onto the extension of the head of the wheel connector , and ∘ an elongate bar extending from the one side of the elongate body and for passing through the vehicle wheel , wherein the locking collar extending from one side of the elongate body of the locking device is height adjustable such that the extension of the locking collar from the one side of the elongate body is adjustable. ∘ an elongate body , ∘ a locking collar extending from one side of the elongate body and for connecting to the extension of the head of the wheel connector , ∘ a locking mechanism contained within the elongate body and for locking the locking collar onto the extension of the head of the wheel connector , and ∘ an elongate bar extending from the one side of the elongate body and for passing through the vehicle wheel , wherein the locking collar extending from one side of the elongate body of the locking device is height adjustable such that the extension of the locking collar from the one side of the elongate body is adjustable.
A network log time alignment method, comprising: obtaining to-be-analyzed log data of multiple network devices; parsing the log data of the multiple network devices to obtain features of each network device; determining associated features of the multiple network devices according to the features of each network device; and performing alignment on log time in the log data of the multiple network devices according to the associated features, wherein the performing alignment on log time in the log data of the multiple network devices according to the associated features comprises: obtaining a reference time for log alignment; and for each network device, determining a calibration time deviation of the network device, wherein the calibration time deviation is a difference between a log time of an associated feature of the network device and the reference time, and subtracting the calibration time deviation from a log time in log data of the network device. obtaining to-be-analyzed log data of multiple network devices; parsing the log data of the multiple network devices to obtain features of each network device; determining associated features of the multiple network devices according to the features of each network device; and performing alignment on log time in the log data of the multiple network devices according to the associated features, wherein the performing alignment on log time in the log data of the multiple network devices according to the associated features comprises: obtaining a reference time for log alignment; and for each network device, determining a calibration time deviation of the network device, wherein the calibration time deviation is a difference between a log time of an associated feature of the network device and the reference time, and subtracting the calibration time deviation from a log time in log data of the network device. obtaining a reference time for log alignment; and for each network device, determining a calibration time deviation of the network device, wherein the calibration time deviation is a difference between a log time of an associated feature of the network device and the reference time, and subtracting the calibration time deviation from a log time in log data of the network device.
An article of apparel comprising: (a) a first woven area , wherein the first woven area comprises a first weft density and a first yarn weight per unit length, wherein a first insulating layer is arranged in the first woven area , wherein the first insulating layer comprises a synthetic filling; (b) a second woven area arranged adjacent to the first woven area , wherein the second woven area comprises a second weft density and a second yarn weight per unit length; and (c) a third woven area arranged adjacent to the second woven area , wherein the third woven area comprises a third weft density and a third yarn weight per unit length, wherein a third insulating layer is arranged in the third woven area , wherein the third insulating layer comprises down feathers; wherein the second weft density in the second woven area changes gradually from the first weaving density to the third weft density, wherein the third weft density is at least twice as large as the first weft density; and / or wherein the second yarn weight per unit length in the second woven area changes gradually from the first yarn weight per unit length to the third yarn weight per unit length, wherein the third yarn weight per unit length is at least twice as large as the first yarn weight per unit length. (a) a first woven area , wherein the first woven area comprises a first weft density and a first yarn weight per unit length, wherein a first insulating layer is arranged in the first woven area , wherein the first insulating layer comprises a synthetic filling; (b) a second woven area arranged adjacent to the first woven area , wherein the second woven area comprises a second weft density and a second yarn weight per unit length; and (c) a third woven area arranged adjacent to the second woven area , wherein the third woven area comprises a third weft density and a third yarn weight per unit length, wherein a third insulating layer is arranged in the third woven area , wherein the third insulating layer comprises down feathers; wherein the second weft density in the second woven area changes gradually from the first weaving density to the third weft density, wherein the third weft density is at least twice as large as the first weft density; and / or wherein the second yarn weight per unit length in the second woven area changes gradually from the first yarn weight per unit length to the third yarn weight per unit length, wherein the third yarn weight per unit length is at least twice as large as the first yarn weight per unit length. wherein the second weft density in the second woven area changes gradually from the first weaving density to the third weft density, wherein the third weft density is at least twice as large as the first weft density; and / or wherein the second yarn weight per unit length in the second woven area changes gradually from the first yarn weight per unit length to the third yarn weight per unit length, wherein the third yarn weight per unit length is at least twice as large as the first yarn weight per unit length.
A wheel assembly, comprising: a wheel having a rim and configured to rotate about an axis; a torque bar disposed radially inward of the rim; a heat shield disposed between the wheel and the torque bar, wherein the heat shield comprises a cylindrical structure extending circumferentially about an axis of the wheel and around an inner diameter of the rim; wherein the heat shield comprises a heat shield material, and a thermal conductivity of the heat shield material is greater than 30 W/mK; characterised in that the heat shield further comprises a heat shield retainer comprising a retainer material; wherein the heat shield comprises a first end and a second end spaced apart from the first end, wherein the first end of the heat shield includes a first hook member and the second end of the heat shield includes a second hook member , wherein the heat shield retainer includes a first clip member configured to engage the first hook member and a second clip member configured to engage the second hook member a wheel having a rim and configured to rotate about an axis; a torque bar disposed radially inward of the rim; a heat shield disposed between the wheel and the torque bar, wherein the heat shield comprises a cylindrical structure extending circumferentially about an axis of the wheel and around an inner diameter of the rim; wherein the heat shield comprises a heat shield material, and a thermal conductivity of the heat shield material is greater than 30 W/mK; characterised in that the heat shield further comprises a heat shield retainer comprising a retainer material; wherein the heat shield comprises a first end and a second end spaced apart from the first end, wherein the first end of the heat shield includes a first hook member and the second end of the heat shield includes a second hook member , wherein the heat shield retainer includes a first clip member configured to engage the first hook member and a second clip member configured to engage the second hook member
A motor drive, particularly for submersed electric pumps, comprising a jacket closed hermetically by a bottom and by a head in order to form a first hermetic chamber , said first hermetic chamber containing an electric motor that is immersed in a bath of dielectric cooling liquid, said motor drive further comprising a compensation means that balances the variations in volume of said dielectric cooling liquid and generates an overpressure within said first hermetic chamber ; said compensation means comprises a first elastic bellows member , which is accommodated in a first seat formed in said bottom , said first elastic bellows member being joined to said bottom in order to form at least part of said first hermetic chamber , said motor drive being characterized in that said jacket is associated with an enclosure in order to form a second hermetic chamber , said second hermetic chamber containing a power supply and control unit that can be connected to said electric motor ; said first hermetic chamber being substantially independent of said second hermetic chamber ; and said first elastic bellows member being arranged between said first hermetic chamber and said second hermetic chamber 81, said bottom engaging axially within said enclosure in order to close said second hermetic chamber hermetically; said first elastic bellows member comprises an elastic return portion that is joined to a deformable supporting portion, said elastic return portion comprising at least one first cylindrical body that is closed at one end by a dome , said deformable supporting portion comprising at least one second cylindrical body that is joined coaxially to said first cylindrical body , a free end of said second cylindrical body being joined to said bottom ; said bottom comprises a first hollow member that forms said first seat , said first hollow member being jointly connected to a first end of said jacket and being closed by a first detachable cover , said first detachable cover forming an expansion chamber that at least partially accommodates said first elastic bellows member , said expansion chamber being connected to the outside of said first hermetic chamber in order to transfer the hydrostatic thrust to said first elastic bellows member ; said first detachable cover comprises a disk member associated with said first hollow member , a tubular portion protruding centrally from said disk member and being inserted within said first seat , a free end of said tubular portion forming a substantially rigid frame that is inserted between said first cylindrical body and said second cylindrical body .
An implantable medical device (200; 500; 800) comprising: an electromechanical substrate ; a pressure sensor (210; 510; 810) disposed on the electromechanical substrate; a non-porous, flexible outer membrane (230; 910) surrounding at least a portion of the pressure sensor (210; 810); and a hydrophobic liquid (240; 540; 840) disposed between the portion of the pressure sensor (210; 510; 810) and the flexible outer membrane (230; 530; 910), wherein the flexible outer membrane (230; 910) comprises a chemical vapour deposited poly(p-xylylene) material, and in that the flexible outer membrane (230; 910) has a shape that comprises corrugations; the flexible outer membrane fully or partially surrounds the pressure sensor and forms a package that is defined by a volume that contains the pressure sensor, the flexible outer membrane has a thickness between 1 μm and 100 μm, and the hydrophobic liquid disposed in the volume and in contact with the pressure sensor and the flexible outer membrane, and the hydrophobic liquid is silicone oil and has a kinematic viscosity between 0.45 cSt and 100,000 cSt. a pressure sensor (210; 510; 810) disposed on the electromechanical substrate; a non-porous, flexible outer membrane (230; 910) surrounding at least a portion of the pressure sensor (210; 810); and a hydrophobic liquid (240; 540; 840) disposed between the portion of the pressure sensor (210; 510; 810) and the flexible outer membrane (230; 530; 910), wherein the flexible outer membrane (230; 910) comprises a chemical vapour deposited poly(p-xylylene) material, and in that the flexible outer membrane (230; 910) has a shape that comprises corrugations; the flexible outer membrane fully or partially surrounds the pressure sensor and forms a package that is defined by a volume that contains the pressure sensor, the flexible outer membrane has a thickness between 1 μm and 100 μm, and the hydrophobic liquid disposed in the volume and in contact with the pressure sensor and the flexible outer membrane, and the hydrophobic liquid is silicone oil and has a kinematic viscosity between 0.45 cSt and 100,000 cSt.
A patch clamp system comprising a patch clamp device , an internal solution and an external solution , wherein the internal solution comprises one or more anions selected from phosphate (PO 4 3- ) ions, sulfate (SO 4 2- ) ions and fluoride (F - ) ions, and wherein the external solution comprises one or more metal ions selected from Ca 2+ , Sr 2+ , Ba 2+ , or combinations thereof; wherein the internal solution additionally comprises calcium (Ca 2+ ) ions and wherein the internal solution has a concentration of fluoride (F - ) ions which is less than 5mmol/L, and wherein the concentration of the Ca 2+ , Sr 2+ and Ba 2+ metal ions in the external solution is between 1 and 17 mmol/L. wherein the internal solution comprises one or more anions selected from phosphate (PO 4 3- ) ions, sulfate (SO 4 2- ) ions and fluoride (F - ) ions, and wherein the external solution comprises one or more metal ions selected from Ca 2+ , Sr 2+ , Ba 2+ , or combinations thereof; wherein the internal solution additionally comprises calcium (Ca 2+ ) ions and wherein the internal solution has a concentration of fluoride (F - ) ions which is less than 5mmol/L, and wherein the concentration of the Ca 2+ , Sr 2+ and Ba 2+ metal ions in the external solution is between 1 and 17 mmol/L.
Computer , in particular all-in-one workstation computer with an interface module , wherein the interface module has a circuit board shield , which is provided for coupling a main circuit board of the computer to operating elements and/or external interfaces and which is surrounded by a shield housing , wherein the main circuit board of the computer is integrated in a monitor, wherein the shield housing has a first inner zone for passing a cable harness from the interface module through to the main circuit board of the computer and a second inner zone for receiving the circuit board shield , wherein the interface module is embodied as an operating element of the computer , wherein the computer is embodied as a bug-proof computer and wherein the interface module has EMC zones subject to loads of varying strength such that a zone model is formed by the first and second inner zone with an operating element which is specifically evacuated in terms of high frequencies.