mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for accommodating copper foil, comprising: an accommodation body in which an accommodation space for accommodating copper foil wound on a core is provided; a first support portion coupled to the accommodation body to support one side of the core ; a second support portion coupled to the accommodation body to support the other side of the core ; a first damper portion coupled to the first support portion to be disposed between the first support portion and the one side of the core ; and a second damper portion coupled to the second support portion to be disposed between the second support portion and the other side of the core , wherein the first damper portion comprises a first damper body coupled to the first support portion and a plurality of first damper protrusions protruding from the first damper body , characterised by a plurality of first damper grooves formed in the first damper portion , while the remaining part excluding parts in which the first damper grooves are formed is coupled to the first support portion , wherein the first damper protrusions are disposed to be spaced apart from each other in a first axial direction, and wherein the first damper grooves are disposed to be spaced apart from each other in a second axial direction, the second axial direction and the first axial direction being perpendicular to each other in one plane. an accommodation body in which an accommodation space for accommodating copper foil wound on a core is provided; a first support portion coupled to the accommodation body to support one side of the core ; a second support portion coupled to the accommodation body to support the other side of the core ; a first damper portion coupled to the first support portion to be disposed between the first support portion and the one side of the core ; and a second damper portion coupled to the second support portion to be disposed between the second support portion and the other side of the core , wherein the first damper portion comprises a first damper body coupled to the first support portion and a plurality of first damper protrusions protruding from the first damper body , characterised by a plurality of first damper grooves formed in the first damper portion , while the remaining part excluding parts in which the first damper grooves are formed is coupled to the first support portion , wherein the first damper protrusions are disposed to be spaced apart from each other in a first axial direction, and wherein the first damper grooves are disposed to be spaced apart from each other in a second axial direction, the second axial direction and the first axial direction being perpendicular to each other in one plane.
A multi-layer nonwoven material comprising: a first layer comprising cellulose fibers and bicomponent fibers; and a second layer comprising fine hardwood cellulose fibers and bicomponent fibers, wherein the hardwood cellulose fibers of the second layer are finer than the cellulose fibers of the first layer, wherein the fine cellulose fibers comprise a pulp fiber coarseness ranging from 4.2 mg/100 m to 14.08 mg/100 m, and wherein at least a portion of the first and second layers are coated with a binder. a first layer comprising cellulose fibers and bicomponent fibers; and a second layer comprising fine hardwood cellulose fibers and bicomponent fibers, wherein the hardwood cellulose fibers of the second layer are finer than the cellulose fibers of the first layer, wherein the fine cellulose fibers comprise a pulp fiber coarseness ranging from 4.2 mg/100 m to 14.08 mg/100 m, and wherein at least a portion of the first and second layers are coated with a binder.
A compound represented by the following Chemical Formula 1: in Chemical Formula 1, A1 is a C 6-60 aromatic ring, A2 is a C 6-60 aromatic ring, A3 is a C 6-60 aromatic ring, or a C 2-60 heteroaromatic ring containing any one of N, O and S, A4 is a C 6-60 aromatic ring, X is N-R, where R is a substituted or unsubstituted C 6-60 aryl, Y is B; n1 is an integer of 1 to 4, and n2 is an integer of 1 to 4. A1 is a C 6-60 aromatic ring, A2 is a C 6-60 aromatic ring, A3 is a C 6-60 aromatic ring, or a C 2-60 heteroaromatic ring containing any one of N, O and S, A4 is a C 6-60 aromatic ring, X is N-R, where R is a substituted or unsubstituted C 6-60 aryl, Y is B; n1 is an integer of 1 to 4, and n2 is an integer of 1 to 4.
An ultrasonic sensing system, comprising: an ultrasonic transmitter configured to provide a transmission of ultrasonic signals; an ultrasonic receiver configured to receive ultrasonic signals generated as a result of the transmission including reverberation signals and echo signals; an attenuator circuit connectable to the ultrasonic receiver via a switch , the attenuator circuit operable for attenuating the received ultrasonic signals; and a microcontroller unit (MCU) configured to control the switch to electrically couple the ultrasonic receiver with the attenuator circuit only during a predetermined period of time after the transmission of ultrasonic signals so as to attenuate the received ultrasonic signals. an ultrasonic transmitter configured to provide a transmission of ultrasonic signals; an ultrasonic receiver configured to receive ultrasonic signals generated as a result of the transmission including reverberation signals and echo signals; an attenuator circuit connectable to the ultrasonic receiver via a switch , the attenuator circuit operable for attenuating the received ultrasonic signals; and a microcontroller unit (MCU) configured to control the switch to electrically couple the ultrasonic receiver with the attenuator circuit only during a predetermined period of time after the transmission of ultrasonic signals so as to attenuate the received ultrasonic signals.
A method for inserting an analyte sensor into a dermal or subcutaneous tissue of a human body with an inserter , the inserter comprising a posterior housing , a sensor control device coupled with the housing , the analyte sensor , a sharp , and a shroud , the method comprising: placing an anterior surface of the shroud against a recipient's skin, wherein the shroud, the sensor, and the sharp are extended with respect to, and anterior to, an anterior surface of the sensor control device , and wherein the shroud covers the sensor and the sharp and extends through an opening of the sensor control device ; advancing the sensor control device towards the recipient's skin such that the shroud retracts with respect to the sensor control device through the opening of the sensor control device and the sharp and sensor are inserted into the dermal or subcutaneous tissue of the recipient's body; and withdrawing the sharp while leaving the sensor within the recipient's body. placing an anterior surface of the shroud against a recipient's skin, wherein the shroud, the sensor, and the sharp are extended with respect to, and anterior to, an anterior surface of the sensor control device , and wherein the shroud covers the sensor and the sharp and extends through an opening of the sensor control device ; advancing the sensor control device towards the recipient's skin such that the shroud retracts with respect to the sensor control device through the opening of the sensor control device and the sharp and sensor are inserted into the dermal or subcutaneous tissue of the recipient's body; and withdrawing the sharp while leaving the sensor within the recipient's body.
A method of producing a biomatrix scaffold from biological tissue selected from the group comprising pancreas, biliary tree, and duodenum, comprising: a) perfusing or homogenizing the tissue with a first basal medium, wherein the osmolality of said first medium is from 250 mOsm/kg to 350 mOsm/kg and said first medium is serum free and at neutral pH; then b) perfusing the tissue or extracting the homogenate of step (a) with a delipidating buffer comprising sodium deoxycholate and phospholipase A2 in said first medium; then c) perfusing the tissue or extracting the homogenate of step (b) with a buffer at a neutral pH and comprising a salt concentration from 2.0M NaCl to 5.0M, the concentration chosen to keep insoluble collagens identified in the biological tissue; then d) perfusing the tissue or extracting the homogenate of step (c) with RNase and DNase in a buffer; and then e) rinsing the tissue or homogenate of step (d) with a second medium that is at neutral pH, is serum-tree and has an osomolality from 250 mOsm/kg to 350 mOsm/kg. a) perfusing or homogenizing the tissue with a first basal medium, wherein the osmolality of said first medium is from 250 mOsm/kg to 350 mOsm/kg and said first medium is serum free and at neutral pH; then b) perfusing the tissue or extracting the homogenate of step (a) with a delipidating buffer comprising sodium deoxycholate and phospholipase A2 in said first medium; then c) perfusing the tissue or extracting the homogenate of step (b) with a buffer at a neutral pH and comprising a salt concentration from 2.0M NaCl to 5.0M, the concentration chosen to keep insoluble collagens identified in the biological tissue; then d) perfusing the tissue or extracting the homogenate of step (c) with RNase and DNase in a buffer; and then e) rinsing the tissue or homogenate of step (d) with a second medium that is at neutral pH, is serum-tree and has an osomolality from 250 mOsm/kg to 350 mOsm/kg.
Apparatus for providing information on at least one muscle in a patient, which apparatus comprises: (i) signal providing means for providing measurement-enabling signals for the muscle; (ii) first contact electrodes for enabling the measurement-enabling signals from the signal providing means to be received by the patient; (iii) measurement means for measuring a parameter of the muscle, the parameter being such that it is affected by the measurement-enabling signals, and the parameter being such that it relates to at least one electrical property that is indicative of changes in tissue impedance caused by movement of the muscle; and (iv) a garment which is for being worn over the muscle in the patient and which comprises an array of separate electrically conducting areas that conduct transversely through the garment, wherein the array of separate electrically conducting areas is in contact with the skin of the patient; and the apparatus being such that the first contact electrodes are able to be positioned on the garment at a predetermined precise position for obtaining the measured parameter and with the first contact electrodes being in contact with those separate electrically conducting areas in the garment that are over the predetermined position characterised in that , the electrically conducting areas are spaced electrically conducting areas in a matrix, the matrix having more than one row and more than one column. (i) signal providing means for providing measurement-enabling signals for the muscle; (ii) first contact electrodes for enabling the measurement-enabling signals from the signal providing means to be received by the patient; (iii) measurement means for measuring a parameter of the muscle, the parameter being such that it is affected by the measurement-enabling signals, and the parameter being such that it relates to at least one electrical property that is indicative of changes in tissue impedance caused by movement of the muscle; and (iv) a garment which is for being worn over the muscle in the patient and which comprises an array of separate electrically conducting areas that conduct transversely through the garment, wherein the array of separate electrically conducting areas is in contact with the skin of the patient;
Method for detecting a vulnerability in software to protect a computer system from at least one of a security breach and a compliance breach, the method comprising: providing (S101) a ruleset code declaring programming interfaces of a target framework and including rules that define an admissible execution context when invoking the programming interfaces; providing (S102) a source code to be scanned for a software vulnerability; compiling (S103) the source code into a first execution code having additional instructions inserted therein to facilitate tracking of an actual execution context of the source code ; compiling (S104) the ruleset code into a second execution code to be executed together with the first execution code ; executing (S105) the first execution code within a virtual machine and passing a call of the programming interfaces to the second execution code ; and detecting (S106) the software vulnerability when the actual execution context disagrees with the admissible execution context. providing (S101) a ruleset code declaring programming interfaces of a target framework and including rules that define an admissible execution context when invoking the programming interfaces; providing (S102) a source code to be scanned for a software vulnerability; compiling (S103) the source code into a first execution code having additional instructions inserted therein to facilitate tracking of an actual execution context of the source code ; compiling (S104) the ruleset code into a second execution code to be executed together with the first execution code ; executing (S105) the first execution code within a virtual machine and passing a call of the programming interfaces to the second execution code ; and detecting (S106) the software vulnerability when the actual execution context disagrees with the admissible execution context.
A method of automatically clearing an obstruction encountered while cleaning one or more tubes in a tube sheet of a heat exchanger with a flexible lance drive apparatus having driven rollers propelling one or more flexible lances into the one or more tubes, the method comprising: sensing a pneumatic supply pressure to a pneumatic lance drive motor at one side of the pneumatic lance drive motor during forward operation; sensing a pneumatic pressure at an opposite side of the pneumatic lance drive motor at the pneumatic lance drive motor during forward operation; determining a difference between the pressures; comparing the difference to a predetermined difference threshold; reversing supply line connections to the pneumatic lance drive motor so as to reverse pneumatic lance drive motor direction for a predetermined time interval if the difference exceeds the threshold; restoring the supply line connections after the predetermined time interval; and repeating the sensing, determining, comparing, reversing and restoring operations until the difference no longer exceeds the predetermined difference threshold. sensing a pneumatic supply pressure to a pneumatic lance drive motor at one side of the pneumatic lance drive motor during forward operation; sensing a pneumatic pressure at an opposite side of the pneumatic lance drive motor at the pneumatic lance drive motor during forward operation; determining a difference between the pressures; comparing the difference to a predetermined difference threshold; reversing supply line connections to the pneumatic lance drive motor so as to reverse pneumatic lance drive motor direction for a predetermined time interval if the difference exceeds the threshold; restoring the supply line connections after the predetermined time interval; and repeating the sensing, determining, comparing, reversing and restoring operations until the difference no longer exceeds the predetermined difference threshold.
Wrapping device for wrapping elongated bundled goods with an adhesive strip having a winding head , having a rotatably mounted rotating body of the winding head , having a reel for stocking the adhesive strip and having a cutting device for cutting the adhesive strip to a predetermined length, characterised in that the cutting device is arranged outside the winding head and the predetermined length of the adhesive strip is held in the winding head .
A temperature control system incorporated in an automobile provided at least with a motor chamber on which a secondary cell or a fuel cell for driving wheels by a motor is mounted and a cabin into which a person gets on and controlling a temperature of a portion of the automobile, wherein the temperature control system includes at least one catalytic heater provided with a catalyst and a fuel tank for supplying fuel to the catalyst; the catalytic heater generates heat when an oxidizing gas and fuel from the fuel tank are supplied to the catalyst, and the temperature of the portion of the automobile is controlled by using heat generated by the catalytic heater, characterized in that at least a part of the gas supplied to the catalyst and heated by the generated heat is subjected to circulative supply to the catalyst.
A sachet of aerosol-forming substrate for use in an electrically heated aerosol-generating device , the sachet comprising: an aerosol-forming substrate within the sachet ; and an electrical heater element comprising first and second electrically conductive portions , wherein, the electrical heater element is within the sachet and in direct contact with the aerosol-forming substrate, and the first and second electrically conductive portions are configured to connect the electrical heater element with an external power supply. an aerosol-forming substrate within the sachet ; and an electrical heater element comprising first and second electrically conductive portions , wherein, the electrical heater element is within the sachet and in direct contact with the aerosol-forming substrate, and the first and second electrically conductive portions are configured to connect the electrical heater element with an external power supply.
A system for making microfluidic connections comprising: a base; a receiving feature for receiving a microfluidic device, said microfluidic device having at least one fluid port; a moveable device; a sealing fitting, having a fluid inlet and outlet, attached to said moveable device; and a compression mechanism; wherein the moveable device is fashioned to adjustably move the sealing fitting relative to the microfluidic device to access a fluid port located at any position on the microfluidic device to align said sealing fitting and said at least one fluid port of said microfluidic device into fluid communication; and wherein the compression mechanism is configured to compress said sealing fitting and said at least one fluid port into contact thereby forming a microfluidic connection by creating a leak-resistant seal at the interface of said sealing fitting and said at least one fluid port of said microfluidic device. a base; a receiving feature for receiving a microfluidic device, said microfluidic device having at least one fluid port; a moveable device; a sealing fitting, having a fluid inlet and outlet, attached to said moveable device; and a compression mechanism; wherein the moveable device is fashioned to adjustably move the sealing fitting relative to the microfluidic device to access a fluid port located at any position on the microfluidic device to align said sealing fitting and said at least one fluid port of said microfluidic device into fluid communication; and wherein the compression mechanism is configured to compress said sealing fitting and said at least one fluid port into contact thereby forming a microfluidic connection by creating a leak-resistant seal at the interface of said sealing fitting and said at least one fluid port of said microfluidic device.
A method to establish a connected mode between a user equipment and a first network node within a wireless network comprising at least a first and second network node, the method comprising: receiving , at the user equipment, a bias value for establishing a connection from the first network node or the second network node; while the user equipment is in an idle mode and is camped on the first network node or the second network node to receive pages from the first network node or from the second network node, and on determining that the connected mode needs to be established based on a page or based on the user equipment having traffic to send; selecting the first or the second network node for establishing the connection by: applying a criterion based on the bias value and at least the signal strengths of the first network node and the second network node at the user equipment, thereby creating biased power level values; and connecting to the first or the second network node based on the highest biased power level value. receiving , at the user equipment, a bias value for establishing a connection from the first network node or the second network node; while the user equipment is in an idle mode and is camped on the first network node or the second network node to receive pages from the first network node or from the second network node, and on determining that the connected mode needs to be established based on a page or based on the user equipment having traffic to send; selecting the first or the second network node for establishing the connection by: applying a criterion based on the bias value and at least the signal strengths of the first network node and the second network node at the user equipment, thereby creating biased power level values; and connecting to the first or the second network node based on the highest biased power level value. selecting the first or the second network node for establishing the connection by: applying a criterion based on the bias value and at least the signal strengths of the first network node and the second network node at the user equipment, thereby creating biased power level values; and connecting to the first or the second network node based on the highest biased power level value.
A dressing for treating a tissue site with negative pressure, comprising: an open-cell foam member having a felted portion and a non-felted portion , the felted portion extending a depth into a tissue-contact surface of the foam member ; a sealing layer comprising a treatment aperture and a first plurality of perforations around the treatment aperture , the felted portion configured to contact the tissue site through the treatment aperture ; a second plurality of perforations formed through the felted portion , at least one of the second plurality of perforations (216 exposed to the tissue site through the treatment aperture ; and a cover comprising a film and an adhesive, the film disposed over the foam member and coupled to the sealing layer around the foam member , the adhesive disposed adjacent to the second plurality of perforations . an open-cell foam member having a felted portion and a non-felted portion , the felted portion extending a depth into a tissue-contact surface of the foam member ; a sealing layer comprising a treatment aperture and a first plurality of perforations around the treatment aperture , the felted portion configured to contact the tissue site through the treatment aperture ; a second plurality of perforations formed through the felted portion , at least one of the second plurality of perforations (216 exposed to the tissue site through the treatment aperture ; and a cover comprising a film and an adhesive, the film disposed over the foam member and coupled to the sealing layer around the foam member , the adhesive disposed adjacent to the second plurality of perforations .