mhurhangee/ep-ind-claims huggingface dataset:
A negative electrode active material comprising: a phase A comprising an active silicon; and a phase B comprising a metal alloy matrix comprising a silicon and a transition metal, wherein the peaks other than a peak derived from the active silicon of the phase A observed by an ex situ XRD analysis before a charging and a discharging are also observed by an ex situ XRD analysis after the charging and the discharging, satisfying the following Expression 1: X ≥ 500 Hv wherein the "X" represents the Vickers hardness of the alloy matrix measured at 100 gf, wherein the phase A and the phase B are in the form of an alloy, characterized in that the negative electrode active material is represented by the following Formula 1: aSi − bTi − cFe wherein the "a," "b" and "c" are the unit "atom%," the sum of the "a," "b" and "c" is 100 atom%, the "a" is from 30 atom% to 80 atom%, the "b" is 35 atom% or less, and more than 0 atom%, and the "c" is 35 atom% or less, and more than 0 atom %. a phase A comprising an active silicon; and a phase B comprising a metal alloy matrix comprising a silicon and a transition metal, wherein the peaks other than a peak derived from the active silicon of the phase A observed by an ex situ XRD analysis before a charging and a discharging are also observed by an ex situ XRD analysis after the charging and the discharging, satisfying the following Expression 1: X ≥ 500 Hv wherein the "X" represents the Vickers hardness of the alloy matrix measured at 100 gf, wherein the phase A and the phase B are in the form of an alloy, wherein the "X" represents the Vickers hardness of the alloy matrix measured at 100 gf, wherein the phase A and the phase B are in the form of an alloy, characterized in that the negative electrode active material is represented by the following Formula 1: aSi − bTi − cFe wherein the "a," "b" and "c" are the unit "atom%," the sum of the "a," "b" and "c" is 100 atom%, the "a" is from 30 atom% to 80 atom%, the "b" is 35 atom% or less, and more than 0 atom%, and the "c" is 35 atom% or less, and more than 0 atom %.
A method of operating a radio frequency identification RFID system, the method comprising: generating an RFID interrogation signal with an RFID reader of the RFID system; obtaining, in response to generating the RFID interrogation signal, at least one RFID tag response signal at the RFID reader, the at least one RFID tag response signal conveying tag data; characterised in that the method comprises: obtaining a current location of a mobile device; and providing at least some of the tag data to the mobile device based on the current location of the mobile device. generating an RFID interrogation signal with an RFID reader of the RFID system; obtaining, in response to generating the RFID interrogation signal, at least one RFID tag response signal at the RFID reader, the at least one RFID tag response signal conveying tag data; characterised in that the method comprises: obtaining a current location of a mobile device; and providing at least some of the tag data to the mobile device based on the current location of the mobile device. obtaining a current location of a mobile device; and providing at least some of the tag data to the mobile device based on the current location of the mobile device.
A device for holding an electronic gadget comprising: a gadget holder mounting bracket with a height adjustable tube and a height adjustable lock wherein bottom end of height adjustable tube is secured at the gadget holder mounting bracket and top end of the height adjustable tube is constructed with a gadget rotational lock, and a gadget gripper secured to a clamp that being connected to the top end of the height adjustable tube, characterized by an E-stop and/or other switches; a jog-wheel configured to control an actuator or cross-head movement simultaneously along with other operations; a rotary encoder and related electronic hardware that facilitate the actuator and/or the cross-head movement through the jog-wheel; wherein the device is provided with internal cavities for a concealed cabling passage for an USB cable used for charging the electronic gadget and/or other cables as well as cabling for the E-stop and/or any other hardwired button and the jog-wheel and rotary encoder. characterized by an E-stop and/or other switches; a jog-wheel configured to control an actuator or cross-head movement simultaneously along with other operations; a rotary encoder and related electronic hardware that facilitate the actuator and/or the cross-head movement through the jog-wheel; wherein the device is provided with internal cavities for a concealed cabling passage for an USB cable used for charging the electronic gadget and/or other cables as well as cabling for the E-stop and/or any other hardwired button and the jog-wheel and rotary encoder.
A liquid cleanser composition for low temperature stability and retention of viscosity comprising: 1) 5 to 40 wt% of a surfactant system comprising surfactants selected from the group consisting of anionic, nonionic, and zwitterionic surfactants and mixtures of the above, wherein said surfactant system comprises anionic surfactant and said anionic surfactant comprises 50% or more of the total surfactant system; 2) 0.5 to 10 wt% linear fatty acids with 10 to 20 carbons; 3) 0.1 to 5 wt% of hydrogenated triglyceride with IV number 0 to less than 20, and a melting temperature between 35°C to 80°C; wherein said hydrogenated triglyceride is added either alone or as a mixture of hydrogenated triglyceride with other triglyceride oils and wherein the hydrogenated triglycerides comprises 40% or more of the mixture; wherein because of use of hydrogenated triglyceride alone or as 40% or more of mixture of triglycerides, the said liquid cleanser composition is stable, retains at least 70% of its original viscosity after being stored at 4°C refrigerator for 7 days. 1) 5 to 40 wt% of a surfactant system comprising surfactants selected from the group consisting of anionic, nonionic, and zwitterionic surfactants and mixtures of the above, wherein said surfactant system comprises anionic surfactant and said anionic surfactant comprises 50% or more of the total surfactant system; 2) 0.5 to 10 wt% linear fatty acids with 10 to 20 carbons; 3) 0.1 to 5 wt% of hydrogenated triglyceride with IV number 0 to less than 20, and a melting temperature between 35°C to 80°C;
A system for collecting and transmitting solar or non-solar radiation comprising: an optical collector adapted to collect solar or non-solar radiation; a lens system adapted to focus said collected solar or non-solar radiation in rays; a mirror system adapted to concentrate said focused rays by a N factor; a coupler and collimating system adapted to produce radiant rays from said concentrated focused rays, a heat resistant optical conduit adapted to concentrate said radiant rays into a complex energy wave, a coupling focusing collimator to convert the.complex energy wave into focused rays and align them into three filters: a heat filter to filter out infrared, a light filter to filter out visible light and ari' electricity filter adapted to transform components of the complex energy wave into electricity. an optical collector adapted to collect solar or non-solar radiation; a lens system adapted to focus said collected solar or non-solar radiation in rays; a mirror system adapted to concentrate said focused rays by a N factor; a coupler and collimating system adapted to produce radiant rays from said concentrated focused rays, a heat resistant optical conduit adapted to concentrate said radiant rays into a complex energy wave, a coupling focusing collimator to convert the.complex energy wave into focused rays and align them into three filters: a heat filter to filter out infrared, a light filter to filter out visible light and ari' electricity filter adapted to transform components of the complex energy wave into electricity. a heat filter to filter out infrared, a light filter to filter out visible light and ari' electricity filter adapted to transform components of the complex energy wave into electricity.
A method of operating an oxy/fuel combustion system comprising: providing a combustion system comprising: a furnace arranged and disposed to receive and combust a fuel to form a combustion fluid; a convective section arranged to receive the combustion fluid from the furnace; and one or more heat exchangers in the convective section arranged and disposed to transfer heat from the combustion fluid to a heat exchange medium; characterised in recycling a support gas in the combustion system prior to activating a first burner group; activating the first burner group subsequent to recycling the support gas, to produce a combustion fluid including CO 2, such that a level of the CO 2 in the combustion fluid increases as a function of time; and continuing production of the combustion fluid to exceed a predetermined level of the CO 2 in the combustion fluid, for a period of time, the predetermined level being sufficient to permit the CO 2 to be purified by a CO 2 purification unit. providing a combustion system comprising: a furnace arranged and disposed to receive and combust a fuel to form a combustion fluid; a convective section arranged to receive the combustion fluid from the furnace; and one or more heat exchangers in the convective section arranged and disposed to transfer heat from the combustion fluid to a heat exchange medium; characterised in a furnace arranged and disposed to receive and combust a fuel to form a combustion fluid; a convective section arranged to receive the combustion fluid from the furnace; and one or more heat exchangers in the convective section arranged and disposed to transfer heat from the combustion fluid to a heat exchange medium; characterised in recycling a support gas in the combustion system prior to activating a first burner group; activating the first burner group subsequent to recycling the support gas, to produce a combustion fluid including CO 2, such that a level of the CO 2 in the combustion fluid increases as a function of time; and continuing production of the combustion fluid to exceed a predetermined level of the CO 2 in the combustion fluid, for a period of time, the predetermined level being sufficient to permit the CO 2 to be purified by a CO 2 purification unit.
A composition for depositing a carbon-doped silicon containing film comprising: a first precursor comprising at least one compound selected from the group consisting of: (i) an organoaminoalkylsilane having a formula of R 5 Si(NR 3 R 4)H 2; wherein R 3 and R 4 are each independently selected from the group consisting of a C 1 to C 10 linear or branched alkyl group, a C 3 to C 10 cyclic alkyl group, a linear or branched C 2 to C 10 alkenyl group, a linear or branched C 2 to C 10 alkynyl group, a C 5 to C 10 aromatic group, and a C 3 to C 10 saturated or unsaturated heterocyclic group; R 5 is selected from the group consisting of a C 1 to C 10 linear or branched alkyl group, a C 3 to C 10 cyclic alkyl group, a linear or branched C 2 to C 10 alkenyl group, a linear or branched C 2 to C 10 alkynyl group, a C 5 to C 10 aromatic group, and a C 3 to C 10 saturated or unsaturated heterocyclic group, and wherein R 3 and R 4 can form a cyclic ring or an alkyl-substituted cyclic ring. a first precursor comprising at least one compound selected from the group consisting of: (i) an organoaminoalkylsilane having a formula of R 5 Si(NR 3 R 4)H 2; (i) an organoaminoalkylsilane having a formula of R 5 Si(NR 3 R 4)H 2; wherein R 3 and R 4 are each independently selected from the group consisting of a C 1 to C 10 linear or branched alkyl group, a C 3 to C 10 cyclic alkyl group, a linear or branched C 2 to C 10 alkenyl group, a linear or branched C 2 to C 10 alkynyl group, a C 5 to C 10 aromatic group, and a C 3 to C 10 saturated or unsaturated heterocyclic group; R 5 is selected from the group consisting of a C 1 to C 10 linear or branched alkyl group, a C 3 to C 10 cyclic alkyl group, a linear or branched C 2 to C 10 alkenyl group, a linear or branched C 2 to C 10 alkynyl group, a C 5 to C 10 aromatic group, and a C 3 to C 10 saturated or unsaturated heterocyclic group, and wherein R 3 and R 4 can form a cyclic ring or an alkyl-substituted cyclic ring.
A method for the laser-assisted bonding of substrates, in which two substrates are joined together by being brought directly into contact, and subsequently strengthening of the join between the substrates takes place by activation in regions, induced by laser radiation, at the interface between the substrates, wherein the melting or transformation temperature of the substrates is not reached during the activation, characterised in that the laser radiation is focused onto the interface between the substrates, is pulsed and chemical excitation of the molecules and/or atoms of at least one substrate takes place in the region of the interface due to the laser radiation, the wavelength of the laser radiation being matched to at least one substrate and the focusing of the laser radiation being selected such that excitation of binding states of the molecules and/or atoms of at least one substrate takes place in targeted manner in the region of the interface, and the activation energy and hence the degree of strengthening of the join is set by means of the focusing, pulse energy, pulse repetition rate and the number of pulses of the laser radiation, two substrates which are substantially transparent to a radiated laser radiation of the wavelength λ a being used, and these being irradiated with laser radiation of long-wave, non-linearly absorbing wavelength λ, wherein λ ≥ λ a, and by precise focusing multiphoton processes are triggered at a corresponding high intensity of the laser radiation, and the activation energy and hence the degree of strengthening of the join is set by means of the focusing, wavelength, pulse duration, pulse energy, pulse repetition rate and the number of pulses of the laser radiation.
Adapting sleeve for flexographic printing machines configured for mounting a printing sleeve on it; said adapting sleeve (1a, 1b) having an outer cylinder made of a rigid material; an inner cylinder open at the ends that defines a cylindrical hole for mounting the adapting sleeve (1a, 1b) on a rotary core of a printing machine; rigid ring separators mounted between the outer cylinder and the inner cylinder and spaced longitudinally; characterized in that the inner cylinder has an inner diameter slightly larger than that of the rotary core and the adapting sleeve (1a, 1b) further comprises an autonomous hydraulic device fastening the adapting sleeve (1a, 1b) with respect to said rotary core; said hydraulic device being integrated in the adapting sleeve (1a, 1b) and comprising: hydraulic pads (51, 56) arranged between the inner surface of the inner cylinder, which is formed in an elastically deformable material in radial direction by the action of the hydraulic pads (51, 56), and the rigid ring separators and connected by a hydraulic circuit to a piston that acts as a pressurization element and that is moved by a threaded rod actionable manually and configured to cause, through the pressurization of the hydraulic circuit the inflation of the hydraulic pads (51, 56) and the pressurization of the inner cylinder against the rotary core of the printing machine, the consequent fastening of the adapting sleeve (1a, 1b) to the rotary core; and through the depressurization of the hydraulic circuit the deflation of the hydraulic pads (51, 56) and the elastic recuperation of the inner cylinder, the consequent releasing of the rotary core.
An apparatus for submitting user content in a mobile terminal, comprising: a Dynamic Content Delivery, DCD, enabled client application arranged to compose content and submit-metadata representing handling information for the content according to a user input, to generate a submit-package with the content and the submit-metadata, and to deliver the submit-package to a DCD client; and the DCD client arranged to submit the submit-package including the content and submit-metadata to a DCD server, and to receive a result obtained by handling the content according to the handling information included in the submit-metadata from the DCD server, so that the content is delivered by the DCD server to a DCD content provider, the content being stored by the DCD content provider and shared with another user according to the handling information included in the submit-metadata, wherein the submit-metadata is different from content metadata for content delivery and is supplementary metadata for the content metadata, and the submit-metadata is used in the submit-package. a Dynamic Content Delivery, DCD, enabled client application arranged to compose content and submit-metadata representing handling information for the content according to a user input, to generate a submit-package with the content and the submit-metadata, and to deliver the submit-package to a DCD client; and the DCD client arranged to submit the submit-package including the content and submit-metadata to a DCD server, and to receive a result obtained by handling the content according to the handling information included in the submit-metadata from the DCD server, so that the content is delivered by the DCD server to a DCD content provider, the content being stored by the DCD content provider and shared with another user according to the handling information included in the submit-metadata, wherein the submit-metadata is different from content metadata for content delivery and is supplementary metadata for the content metadata, and the submit-metadata is used in the submit-package.
A method for provisioning a first communication device (101, 201) with a set of at least one credential required for accessing to a wireless network by using a second communication device (102, 202) provisioned with a cryptographic key K also known by the wireless network, the first communication device (101, 201) being associated with a certificate comprising a public key PK, said certificate being stored with an associated private key PrK in said first communication device (101, 201), the method comprising the following steps: - receiving by the second communication device a registration request from the first communication device in order to be provisioned with the set of at least one credential; - transmitting to the wireless network (100, 200) by the second communication device (102, 202) the registration request to generate a set of at least one credential associated to the first communication device (101, 201) comprising at least a cryptographic key K", the wireless network being adapted to generate a first random number R1 and a second random number R2, a cryptographic key K' being derived from R1 and K, the cryptographic key K" being derived from R2 and K'; - receiving by the second communication device (102, 202) a response from the wireless network (100, 200) comprising R1 and R2, R2 being ciphered using the public key PK of the certificate associated to the first communication device (101, 201); - generating K' by the second communication device (101, 201) using R1 and K; - transmitting by the second communication device (102, 202) to the first communication device (101, 201) K' and the ciphered version of R2 for the first communication device (101, 201) to decipher R2 using its private key PrK and to generate K" using R2 and K'. - receiving by the second communication device a registration request from the first communication device in order to be provisioned with the set of at least one credential; - transmitting to the wireless network (100, 200) by the second communication device (102, 202) the registration request to generate a set of at least one credential associated to the first communication device (101, 201) comprising at least a cryptographic key K", the wireless network being adapted to generate a first random number R1 and a second random number R2, a cryptographic key K' being derived from R1 and K, the cryptographic key K" being derived from R2 and K'; - receiving by the second communication device (102, 202) a response from the wireless network (100, 200) comprising R1 and R2, R2 being ciphered using the public key PK of the certificate associated to the first communication device (101, 201); - generating K' by the second communication device (101, 201) using R1 and K; - transmitting by the second communication device (102, 202) to the first communication device (101, 201) K' and the ciphered version of R2 for the first communication device (101, 201) to decipher R2 using its private key PrK and to generate K" using R2 and K'.
Observation circuit for observing an input impedance (Rin) at a high frequency connector of a mobile device terminal, the observation circuit comprising a measurement circuitry, wherein the measurement circuitry comprises the high frequency connector, a reference impedance, a voltage source, and a voltage meter, w her e i n - a first output electrode of the voltage source is connected to both a first electrode of the high frequency connector and a first input electrode of the voltage meter over the reference impedance, and a second output electrode of the voltage source is connected to both a second electrode of the high frequency connector and a second input electrode of the voltage meter, characterized in that the voltage source comprises a receiver coil for receiving a time-variant magnetic field and the voltage source is designed to rectify a voltage generated by the receiver coil and to inject the rectified voltage through the reference impedance into the high frequency connector. - a first output electrode of the voltage source is connected to both a first electrode of the high frequency connector and a first input electrode of the voltage meter over the reference impedance, and a second output electrode of the voltage source is connected to both a second electrode of the high frequency connector and a second input electrode of the voltage meter, characterized in that the voltage source comprises a receiver coil for receiving a time-variant magnetic field and the voltage source is designed to rectify a voltage generated by the receiver coil and to inject the rectified voltage through the reference impedance into the high frequency connector.