mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the production of an electrospun fibrous mat, said process comprising the steps of (a) providing to an electrospinning apparatus an ink formulation comprising (i) metal supported on a carrier, (ii) an ionomer, (iii) an electrospinning polymer selected from the group of halogen-comprising polymers, and (iv) a solvent, and (b) subsequently electrospinning the ink formulation to obtain an electrospun fibrous mat. (a) providing to an electrospinning apparatus an ink formulation comprising (i) metal supported on a carrier, (ii) an ionomer, (iii) an electrospinning polymer selected from the group of halogen-comprising polymers, and (iv) a solvent, and (i) metal supported on a carrier, (ii) an ionomer, (iii) an electrospinning polymer selected from the group of halogen-comprising polymers, and (iv) a solvent, and (b) subsequently electrospinning the ink formulation to obtain an electrospun fibrous mat.
A method of making a chlorinated, brominated or iodinated fluorinated ether-containing compound from a fluoroolefin, the method comprising: (i) chlorinating, brominating or iodinating a difluorosulfuryl peroxide followed by reaction with a first fluoroolefin to form a chlorinated, brominated or iodinated fluoroorganyl acid fluoride; (ii) reacting the chlorinated, brominated or iodinated fluoroorganyl acid fluoride with first compound selected from at least one of: (a) a second fluoroolefin in the presence of I 2 , Br 2 or XY n , where n is an odd numbered integer of from 1 to 7, and wherein XY n is an interhalogen with X being the less electronegative halogen to form the chlorinated, brominated or iodinated fluorinated ether-containing compound; and (b) HFPO to form a corresponding acid fluoride and converting the corresponding acid fluoride into the chlorinated, brominated or iodinated fluorinated ether-containing compound. (i) chlorinating, brominating or iodinating a difluorosulfuryl peroxide followed by reaction with a first fluoroolefin to form a chlorinated, brominated or iodinated fluoroorganyl acid fluoride; (ii) reacting the chlorinated, brominated or iodinated fluoroorganyl acid fluoride with first compound selected from at least one of: (a) a second fluoroolefin in the presence of I 2 , Br 2 or XY n , where n is an odd numbered integer of from 1 to 7, and wherein XY n is an interhalogen with X being the less electronegative halogen to form the chlorinated, brominated or iodinated fluorinated ether-containing compound; and (b) HFPO to form a corresponding acid fluoride and converting the corresponding acid fluoride into the chlorinated, brominated or iodinated fluorinated ether-containing compound. (a) a second fluoroolefin in the presence of I 2 , Br 2 or XY n , where n is an odd numbered integer of from 1 to 7, and wherein XY n is an interhalogen with X being the less electronegative halogen to form the chlorinated, brominated or iodinated fluorinated ether-containing compound; and (b) HFPO to form a corresponding acid fluoride and converting the corresponding acid fluoride into the chlorinated, brominated or iodinated fluorinated ether-containing compound.
A method of protecting usage of key store content at a given user device of an end user, the method includes steps of: (i) receiving, at the given user device , the key store content including key materials that are encrypted using encryption credentials compatible with the given user device , the key store content being created by and received from a key service provider in a format that is compatible with the given user device , wherein the key materials are provided as a key code list; (ii) importing the encrypted key materials of the key store content to a protected key store of the given user device and storing the key materials at the protected key store in the encrypted form, wherein all the encrypted key materials of the key store content are imported at one go, wherein the key store content is stored at the key store in a manner that the key materials are non-exportable from the key store, and wherein the importing comprises: - decrypting the encrypted key materials to obtain the key code list, and - generating keys by choosing the keys from the key code list based upon key offsets, byte offsets and/or bit offsets; and (iii) internally within the protected key store of the given user device , allowing one or more key store integrated services of the given user device to access the non-exportable key materials for use via key references only. (i) receiving, at the given user device , the key store content including key materials that are encrypted using encryption credentials compatible with the given user device , the key store content being created by and received from a key service provider in a format that is compatible with the given user device , wherein the key materials are provided as a key code list; (ii) importing the encrypted key materials of the key store content to a protected key store of the given user device and storing the key materials at the protected key store in the encrypted form, wherein all the encrypted key materials of the key store content are imported at one go, wherein the key store content is stored at the key store in a manner that the key materials are non-exportable from the key store, and wherein the importing comprises: - decrypting the encrypted key materials to obtain the key code list, and - generating keys by choosing the keys from the key code list based upon key offsets, byte offsets and/or bit offsets; and - decrypting the encrypted key materials to obtain the key code list, and - generating keys by choosing the keys from the key code list based upon key offsets, byte offsets and/or bit offsets; and (iii) internally within the protected key store of the given user device , allowing one or more key store integrated services of the given user device to access the non-exportable key materials for use via key references only.
An inverted microscope having an optical objective , a sample vessel retention mechanism and a scanning probe microscope (SPM) head that includes a SPM probe and control system configured to perform scanning of a sample in the sample vessel , the SPM head operably producing a controlled motion of the SPM probe utilizing a control system, the controlled motion tracking the sample surface within an operating bandwidth, the sample vessel retention mechanism comprising: a platform for supporting a sample vessel , the platform providing a surface above which a sample vessel is situated during operation of the SPM head ; an aperture formed in the platform , the aperture being sized to provide a passage for the objective of the inverted microscope to approach the sample vessel from below; characterized in that the sample vessel retention mechanism further comprises: at least one vacuum region having a boundary that includes a floor of the sample vessel and the surface of the platform , each of the at least one vacuum regior being barometrically coupled with a vacuum generator to facilitate a working vacuum within that vacuum region by operation of the vacuum generator ; wherein the at least one vacuum region includes an inner seal situated proximately to the aperture and a distal seal situated distally relative to the aperture , the inner and the distal seals each being arranged to maintain intimate contact with the floor of the sample vessel to enclose the vacuum region , such that, during operation of the SPM head producing the motion, the working vacuum causes the floor of the sample vessel to be substantially isolated from any acoustic excitation within the operating bandwidth resulting from the controlled motion of the SPM probe . a platform for supporting a sample vessel , the platform providing a surface above which a sample vessel is situated during operation of the SPM head ; an aperture formed in the platform , the aperture being sized to provide a passage for the objective of the inverted microscope to approach the sample vessel from below; at least one vacuum region having a boundary that includes a floor of the sample vessel and the surface of the platform , each of the at least one vacuum regior being barometrically coupled with a vacuum generator to facilitate a working vacuum within that vacuum region by operation of the vacuum generator ; wherein the at least one vacuum region includes an inner seal situated proximately to the aperture and a distal seal situated distally relative to the aperture , the inner and the distal seals each being arranged to maintain intimate contact with the floor of the sample vessel to enclose the vacuum region , such that, during operation of the SPM head producing the motion, the working vacuum causes the floor of the sample vessel to be substantially isolated from any acoustic excitation within the operating bandwidth resulting from the controlled motion of the SPM probe .
A heating device comprising: a heater which includes an LED and is configured to heat a heating target with light emitted from the LED, wherein the heating target includes a semiconductor wafer (W); an LED controller configured to control power supplied to the LED and control, when a temperature of the heating target is adjusted, the power supplied to the LED in a range in which a current thereof does not exceed an allowable current (Imax); a correction unit configured to correct the allowable current (Imax); and a voltage measurement unit (M) configured to measure a voltage of the LED, characterized in that the allowable current (Imax) is set as a maximum current in a current range in which light output is linearly changed with respect to a current in a previously acquired current-light output characteristic of the LED; the correction unit is configured to estimate a junction temperature (Tjm) of the LED when the allowable current (Imax) is supplied based on a measurement result by the voltage measurement unit (M) when an estimation current (Ie) is supplied by supplying, during a correction, the allowable current (Imax) to the LED for a predetermined time, for which a junction temperature of the LED is stabilized, then measuring the voltage of the LED at the estimation current (Ie); and when the estimated junction temperature (Tjm) of the LED when the allowable current (Imax) is supplied exceeds an allowable junction temperature (Tmax) corresponding to the allowable current (Imax), the correction unit is configured to correct the allowable current (Imax) such that the allowable current (Imax) is decreased based on a difference between the allowable junction temperature (Tmax) and the estimated junction temperature (Tjm). the correction unit is configured to estimate a junction temperature (Tjm) of the LED when the allowable current (Imax) is supplied based on a measurement result by the voltage measurement unit (M) when an estimation current (Ie) is supplied by supplying, during a correction, the allowable current (Imax) to the LED for a predetermined time, for which a junction temperature of the LED is stabilized, then measuring the voltage of the LED at the estimation current (Ie); and when the estimated junction temperature (Tjm) of the LED when the allowable current (Imax) is supplied exceeds an allowable junction temperature (Tmax) corresponding to the allowable current (Imax), the correction unit is configured to correct the allowable current (Imax) such that the allowable current (Imax) is decreased based on a difference between the allowable junction temperature (Tmax) and the estimated junction temperature (Tjm).
A motorcycle tire comprising: a tread portion configured to be curved into an arc shape that projects outward in a tire radial direction; a carcass having a toroidal shape; and a tread reinforcing layer disposed outward of the carcass in the tire radial direction and inward of the tread portion in the tire radial direction, wherein the tread reinforcing layer includes a crown region (Cr) and a pair of shoulder regions (Sh) on both outer sides of the crown region (Cr), characterized in that the tread reinforcing layer is formed by a rubber-coated cord strip being helically wound, the rubber-coated cord strip is formed by a plurality of reinforcing cords aligned with each other being covered with topping rubber (G), a distance (Ws) between the reinforcing cords which are adjacent to each other in the rubber-coated cord strip wound in each of the shoulder regions (Sh) is less than a distance (Wc) between the reinforcing cords which are adjacent to each other in the rubber-coated cord strip wound in the crown region (Cr), and shoulder ends (Es) that are the number of the reinforcing cords per unit periphery length in each of the shoulder regions (Sh) are less than crown ends (Ec) that are the number of reinforcing cords per unit periphery length in the crown region (Cr). a tread portion configured to be curved into an arc shape that projects outward in a tire radial direction; a carcass having a toroidal shape; and a tread reinforcing layer disposed outward of the carcass in the tire radial direction and inward of the tread portion in the tire radial direction, wherein the tread reinforcing layer includes a crown region (Cr) and a pair of shoulder regions (Sh) on both outer sides of the crown region (Cr), characterized in that the tread reinforcing layer is formed by a rubber-coated cord strip being helically wound, the rubber-coated cord strip is formed by a plurality of reinforcing cords aligned with each other being covered with topping rubber (G), a distance (Ws) between the reinforcing cords which are adjacent to each other in the rubber-coated cord strip wound in each of the shoulder regions (Sh) is less than a distance (Wc) between the reinforcing cords which are adjacent to each other in the rubber-coated cord strip wound in the crown region (Cr), and shoulder ends (Es) that are the number of the reinforcing cords per unit periphery length in each of the shoulder regions (Sh) are less than crown ends (Ec) that are the number of reinforcing cords per unit periphery length in the crown region (Cr).
A data transmission method, comprising: determining , by a terminal device, a Resource Block Group (RBG) size corresponding to a transmission bandwidth used by the terminal device according to the transmission bandwidth and a corresponding relationship between the transmission bandwidth and the RBG size; receiving , by the terminal device, a bitmap borne in downlink control information sent by a network device, wherein the bitmap comprises M bits, wherein M is a positive integer; determining , by the terminal device, a target RBG for data transmission from N RBGs within the transmission bandwidth according to values on N bits from the M bits, wherein N is determined according to the transmission bandwidth and the RBG size, and N is a positive integer less than or equal to M; and transmitting , by the terminal device, the data with the network device on the target RBG, wherein N is a number of the RBGs comprised in the transmission bandwidth. determining , by a terminal device, a Resource Block Group (RBG) size corresponding to a transmission bandwidth used by the terminal device according to the transmission bandwidth and a corresponding relationship between the transmission bandwidth and the RBG size; receiving , by the terminal device, a bitmap borne in downlink control information sent by a network device, wherein the bitmap comprises M bits, wherein M is a positive integer; determining , by the terminal device, a target RBG for data transmission from N RBGs within the transmission bandwidth according to values on N bits from the M bits, wherein N is determined according to the transmission bandwidth and the RBG size, and N is a positive integer less than or equal to M; and transmitting , by the terminal device, the data with the network device on the target RBG, wherein N is a number of the RBGs comprised in the transmission bandwidth.
A doppler division multiplexing, DDM, multiple input multiple output, MIMO, radar system comprising a transmitter connected to a plurality of transmitter antennas (402 1-N ) via a corresponding plurality of signal paths (403 1-N ) of different electrical lengths (L 1-N ), wherein a difference in the electrical length between an n th signal path and a first one of N signal paths is equal to X n λ n +(n-1)(n-1)λ n /n, where X n is an integer corresponding to a number of each antenna, such that a phase of a signal transmitted by the transmitter is different at each of the plurality of transmitter antennas (402 1-N ); wherein the transmitter is configured to generate a series of M chirps (chirp1-M) in a radar cycle frame provided to each of the plurality of N transmitter antennas (402 1-N ), and wherein each chirp in the series of M chirps has a center frequency, the center frequency changing by a frequency difference ΔF between successive chirps, the center frequencies having wavelengths λ 1-M .
A method for processing a medical device alert in a medical device monitoring system, the method comprising the steps of: remotely receiving, by a wireless relay module , a message from a medical device ; determining, by the wireless relay module , if said message is indicative of an alert condition from the medical device and, if said message type is indicative of an alert, sending the message to a device integration server ; the method characterized by receiving, by the device integration server , the alert message; retrieving, by the device integration server , the text messaging numbers associated with identifying information of the medical device ; transmitting said text messaging numbers and text message information according to the alert message to said wireless relay module via a secure wireless wide-area network, WWAN ; and said wireless relay module transmitting text message information to said text messaging numbers over said secure wireless wide-area network, WWAN . remotely receiving, by a wireless relay module , a message from a medical device ; determining, by the wireless relay module , if said message is indicative of an alert condition from the medical device and, if said message type is indicative of an alert, sending the message to a device integration server ; the method characterized by receiving, by the device integration server , the alert message; retrieving, by the device integration server , the text messaging numbers associated with identifying information of the medical device ; transmitting said text messaging numbers and text message information according to the alert message to said wireless relay module via a secure wireless wide-area network, WWAN ; and said wireless relay module transmitting text message information to said text messaging numbers over said secure wireless wide-area network, WWAN .
Method for producing a decorative panel, comprising the process steps: a) providing a plate-shaped carrier ; b) applying a resin layer onto the plate-shaped carrier ; c) applying a printed or unprinted paper or fleece layer onto the plate-shaped carrier ; d) calendering the resulting layer structure, in particular at a temperature between ≥ 40°C and ≤ 250°C; and e) applying at least one resin composition ; or f) applying a resin-impregnated overlay ; further comprising following process step e) or following process step f) process step g): pressing the resulting layer structure; characterized in that the resin composition applied in process step e) or an impregnating agent of the resin-impregnated overlay applied in process step f) comprises a siloxane, in particular a polysiloxane, wherein the resin composition applied in process step e) or an impregnating agent of the resin-impregnated overlay according to process step f) comprises a siloxane in an amount of ≥ 0.1 wt.-% to ≤ 5 wt.-%. a) providing a plate-shaped carrier ; b) applying a resin layer onto the plate-shaped carrier ; c) applying a printed or unprinted paper or fleece layer onto the plate-shaped carrier ; d) calendering the resulting layer structure, in particular at a temperature between ≥ 40°C and ≤ 250°C; and e) applying at least one resin composition ; or f) applying a resin-impregnated overlay ;
A flame resistant fabric for protection against molten metal splash formed by a first group of yarns and a second group of yarns , wherein the fabric has a face side , a body side , a first direction , and a second direction perpendicular to the first direction and wherein: i. the first group of yarns comprises a first fiber blend , wherein the first fiber blend comprises molten metal shedding fibers comprising wool and cellulosic fibers; ii. the second group of yarns comprises a second fiber blend that is different from the first fiber blend and that comprises cellulosic fibers ; iii. the first group of yarns is predominantly exposed on the face side of the fabric; iv. the second group of yarns is predominantly exposed on the body side of the fabric; characterized in that the first fiber blend comprises 30-60% wool fibers, 20-60% cellulosic fibers and 5-20% nylon fibers inclusive, and the second fiber blend comprises 10-50% modacrylic fibers, 40-90% cellulosic fibers and 5-20% nylon fibers, inclusive. i. the first group of yarns comprises a first fiber blend , wherein the first fiber blend comprises molten metal shedding fibers comprising wool and cellulosic fibers; ii. the second group of yarns comprises a second fiber blend that is different from the first fiber blend and that comprises cellulosic fibers ; iii. the first group of yarns is predominantly exposed on the face side of the fabric; iv. the second group of yarns is predominantly exposed on the body side of the fabric;
Automation device with a module for network analysis and a module for cloud connection, characterized in that a single analysis and cloud unit as an independent module of the automation device is integrated in an ASIC of the automation device connected to a network, that the ASIC has an Ethernet network controller with a first interface for loss-free reading of all received data of the network from network components connected to it the device-internal Ethernet side transmitters , that the Ethernet network controller has a second interface via which all existing Ethernet ports are connected to the analysis and cloud unit and that the analysis and cloud unit is connected to a cloud (C) via a third interface .
Peritoneal dialysis machine having a machine housing , a weighing device at which a receiving bag is arranged for receiving the draining dialyzate and having a hose set (L11-L15) which is connected to the receiving bag , wherein the receiving bag is not in fluid communication with a waste bag in which the drained dialyzate is collected, but rather itself forms the waste bag, wherein the weighing device comprises a weighing pan and the receiving bag is arranged in the weighing pan , wherein the weighing pan is connected via a holding apparatus to a weighing cell of the peritoneal dialysis machine, the holding apparatus comprises a rod assembly which extends from a rear side of the weighing pan upwards to a lower side of the machine housing , the weighing pan has a base and side walls extending upwardly from the base, wherein the side walls are configured to securely hold the receiving bag in the pan, and characterized in that it is provided the side walls can be removed from the base or can be pivoted relative to the base, so that the receiving bag can be easily inserted and removed.