mhurhangee/patent-ind-claim-en huggingface dataset:
A collapsible foldable booster seat, foldable from a flat configuration to an assembled configuration as a booster seat comprising: a plurality of rigid substrates, each rigid substrate is interconnected to another rigid substrate by one or more integrated hinges or flexible parts allowing the rigid substrate to fold either inward or outward when folding upright into a booster seat and when collapsing into a flat configuration wherein each of the rigid substrates comprises two layers of fabric and a hard member inserted in between the two layers of fabric; the plurality of rigid substrates assembling into an internal double triangular structure such that the weight of an occupant is absorbed and transferred by the whole internal double triangular structure itself down to a support surface from both sides of the assembled booster seat and from the longitude axis of the booster seat; wherein when the foldable booster seat is folded flat, the rigid substrates are stacked together; and wherein when the foldable booster seat is folded upright, the rigid substrates are arranged to form the shape of a chair or stool. a plurality of rigid substrates, each rigid substrate is interconnected to another rigid substrate by one or more integrated hinges or flexible parts allowing the rigid substrate to fold either inward or outward when folding upright into a booster seat and when collapsing into a flat configuration wherein each of the rigid substrates comprises two layers of fabric and a hard member inserted in between the two layers of fabric; the plurality of rigid substrates assembling into an internal double triangular structure such that the weight of an occupant is absorbed and transferred by the whole internal double triangular structure itself down to a support surface from both sides of the assembled booster seat and from the longitude axis of the booster seat; wherein when the foldable booster seat is folded flat, the rigid substrates are stacked together; and wherein when the foldable booster seat is folded upright, the rigid substrates are arranged to form the shape of a chair or stool.
A process for making an edible oil-continuous emulsion, which emulsion comprises 15-65% by weight on the total emulsion of an aqueous phase and 35-85% by weight on the total emulsion of a fat phase, said fat phase comprising a first hardstock fat, a second hardstock fat, and edible oil, said process comprising the steps of: a) preparing a dispersion comprising edible oil and fat crystals, by mixing 65% to 98% by weight on the dispersion of edible oil with 2 to 35% by weight on the dispersion of first hardstock fat, wherein the fat crystals in the dispersion have an average crystal thickness of less than 50 nm at temperature of between 15° and 20°C as measured with small angle x-ray scattering; b) providing an aqueous phase at a temperature from 0 to 25°C; c) mixing the dispersion prepared under a. with the aqueous phase prepared under b. to form an emulsion; d) mixing the emulsion prepared under c. with 1-35% by weight based on the total fat phase of said second hardstock fat, which second hardstock fat is liquid and at a temperature of between 30 and 80°C. a) preparing a dispersion comprising edible oil and fat crystals, by mixing 65% to 98% by weight on the dispersion of edible oil with 2 to 35% by weight on the dispersion of first hardstock fat, wherein the fat crystals in the dispersion have an average crystal thickness of less than 50 nm at temperature of between 15° and 20°C as measured with small angle x-ray scattering; b) providing an aqueous phase at a temperature from 0 to 25°C; c) mixing the dispersion prepared under a. with the aqueous phase prepared under b. to form an emulsion; d) mixing the emulsion prepared under c. with 1-35% by weight based on the total fat phase of said second hardstock fat, which second hardstock fat is liquid and at a temperature of between 30 and 80°C.
Method for synchronizing clocks of at least two devices (A, B) in a distributed network (N) of a vehicle , comprising the following steps: - setting up unencrypted communication (K1) between the at least two devices (A, B) in order to determine a time difference (dt) between the clocks of the two devices (A, B), - exchanging messages (ai, bi) between the at least two devices (A, B) using the unencrypted communication (K1), - determining a time difference (dt) between the clocks of the at least two devices (A, B) with the aid of the messages (ai, bi), - setting up encrypted communication (K2) between the at least two devices (A, B) in order to authenticate the exchange of messages (ai, bi), - authenticating the messages (ai, bi) which were used to determine the time difference (dt), - using the determined time difference (dt), if the authentication of exchanged messages (ai, bi) was successfully completed. comprising the following steps: - setting up unencrypted communication (K1) between the at least two devices (A, B) in order to determine a time difference (dt) between the clocks of the two devices (A, B), - exchanging messages (ai, bi) between the at least two devices (A, B) using the unencrypted communication (K1), - determining a time difference (dt) between the clocks of the at least two devices (A, B) with the aid of the messages (ai, bi), - setting up encrypted communication (K2) between the at least two devices (A, B) in order to authenticate the exchange of messages (ai, bi), - authenticating the messages (ai, bi) which were used to determine the time difference (dt), - using the determined time difference (dt), - setting up unencrypted communication (K1) between the at least two devices (A, B) in order to determine a time difference (dt) between the clocks of the two devices (A, B), - exchanging messages (ai, bi) between the at least two devices (A, B) using the unencrypted communication (K1), - determining a time difference (dt) between the clocks of the at least two devices (A, B) with the aid of the messages (ai, bi), - exchanging messages (ai, bi) between the at least two devices (A, B) using the unencrypted communication (K1), - determining a time difference (dt) between the clocks of the at least two devices (A, B) with the aid of the messages (ai, bi), - setting up encrypted communication (K2) between the at least two devices (A, B) in order to authenticate the exchange of messages (ai, bi), - authenticating the messages (ai, bi) which were used to determine the time difference (dt), - using the determined time difference (dt), - using the determined time difference (dt), if the authentication of exchanged messages (ai, bi) was successfully completed.
Method for controlling, in particular regulating, a test bench for a drivetrain with a real transmission , having the following working steps: - calculating a target (n) of a control parameter of the transmission output of the real transmission on the basis of a model which represents the transmission and all further components of the output side of the drivetrain as virtual components , on the basis of at least one measurement parameter measured on the drivetrain , the further components of the output side of the drivetrain being present only as virtual components; and - Controlling the test stand based on the target (n). - calculating a target (n) of a control parameter of the transmission output of the real transmission on the basis of a model which represents the transmission and all further components of the output side of the drivetrain as virtual components , on the basis of at least one measurement parameter measured on the drivetrain , the further components of the output side of the drivetrain being present only as virtual components; and - Controlling the test stand based on the target (n).
A charging apparatus for charging a vehicle battery of an electric vehicle comprising: a connector having a control pilot pin used by a charging controller of said charging apparatus to control a charging of the vehicle battery of an electric vehicle connected via a charging cable to said charging apparatus , wherein the charging controller is adapted to transmit via the control pilot pin a PWM control pilot signal encoding available power sources of said charging apparatus to a vehicle controller of the electric vehicle , apply switch control signals to one or more relays to switch AC charging phases (L1, L2, L3) supplied by an inverter of the charging apparatus via AC phase or photovoltaic panel DC supply lines, and send information by changing the PWM voltage level on the control pilot pin to indicate which AC charging phases (L1, L2, L3) are available for charging the vehicle battery to the vehicle controller to trigger a soft switching on the concerned AC charging phases (L1, L2, L3). a connector having a control pilot pin used by a charging controller of said charging apparatus to control a charging of the vehicle battery of an electric vehicle connected via a charging cable to said charging apparatus , wherein the charging controller is adapted to transmit via the control pilot pin a PWM control pilot signal encoding available power sources of said charging apparatus to a vehicle controller of the electric vehicle , apply switch control signals to one or more relays to switch AC charging phases (L1, L2, L3) supplied by an inverter of the charging apparatus via AC phase or photovoltaic panel DC supply lines, and send information by changing the PWM voltage level on the control pilot pin to indicate which AC charging phases (L1, L2, L3) are available for charging the vehicle battery to the vehicle controller to trigger a soft switching on the concerned AC charging phases (L1, L2, L3). transmit via the control pilot pin a PWM control pilot signal encoding available power sources of said charging apparatus to a vehicle controller of the electric vehicle , apply switch control signals to one or more relays to switch AC charging phases (L1, L2, L3) supplied by an inverter of the charging apparatus via AC phase or photovoltaic panel DC supply lines, and send information by changing the PWM voltage level on the control pilot pin to indicate which AC charging phases (L1, L2, L3) are available for charging the vehicle battery to the vehicle controller to trigger a soft switching on the concerned AC charging phases (L1, L2, L3).
An injection polyaminopolycarboxylic acid modified Abiraterone derivative, having the following structure: where, R= or
A method of communicating between a source device located within a seat headrest and a plurality of sink devices in a local area network, LAN, comprising: generating , at the source device, a modulated magnetic field capable of transferring data via a magnetic communication link, wherein a centralized hub is electrically connected to the source device located within the seat headrest, and wherein the centralized hub provides signals to a plurality of source devices, including the source device, within a local environment; establishing , by the source device, a wireless data transfer between the source device and at least one of the plurality of sink devices; converting, by the source device, the signals to the data in a data format receivable by a respective sink device; and transmitting, by the source device, the data over the magnetic communication link to at least one of the plurality of sink devices, receiving , at the at least one sink device, the data from the source device over the magnetic communication link. generating , at the source device, a modulated magnetic field capable of transferring data via a magnetic communication link, wherein a centralized hub is electrically connected to the source device located within the seat headrest, and wherein the centralized hub provides signals to a plurality of source devices, including the source device, within a local environment; establishing , by the source device, a wireless data transfer between the source device and at least one of the plurality of sink devices; converting, by the source device, the signals to the data in a data format receivable by a respective sink device; and transmitting, by the source device, the data over the magnetic communication link to at least one of the plurality of sink devices, receiving , at the at least one sink device, the data from the source device over the magnetic communication link.
A device to approximate multiple tissue edges , the device comprising: a clip ; and an elongate member , wherein the elongate member connects the clip to an actuation device attached to a proximal end of the elongate member ; wherein the clip is attached to a distal end of the elongate member and configured to be delivered to an access site through a working lumen of an endoscope , wherein the clip comprises: a plurality of jaws each having a proximal first end and a distal second end, the plurality of jaws being coupled at the first ends; and a fixed element located between the jaws , wherein each jaw may be moved with respect to the fixed element from an open configuration to a closed configuration, the open configuration being a configuration where the second end of the jaw is located away from the fixed element and the closed configuration being a configuration where the second end of the jaw mates with the fixed element to grasp one or more tissue edges between the jaw and the fixed element; wherein the clip is configured to be released from the elongate member . a clip ; and an elongate member , wherein the elongate member connects the clip to an actuation device attached to a proximal end of the elongate member ; wherein the clip is attached to a distal end of the elongate member and configured to be delivered to an access site through a working lumen of an endoscope , wherein the clip comprises: a plurality of jaws each having a proximal first end and a distal second end, the plurality of jaws being coupled at the first ends; and a fixed element located between the jaws , wherein each jaw may be moved with respect to the fixed element from an open configuration to a closed configuration, the open configuration being a configuration where the second end of the jaw is located away from the fixed element and the closed configuration being a configuration where the second end of the jaw mates with the fixed element to grasp one or more tissue edges between the jaw and the fixed element; wherein the clip is configured to be released from the elongate member . a plurality of jaws each having a proximal first end and a distal second end, the plurality of jaws being coupled at the first ends; and a fixed element located between the jaws , wherein each jaw may be moved with respect to the fixed element from an open configuration to a closed configuration, the open configuration being a configuration where the second end of the jaw is located away from the fixed element and the closed configuration being a configuration where the second end of the jaw mates with the fixed element to grasp one or more tissue edges between the jaw and the fixed element; wherein the clip is configured to be released from the elongate member .
A method for transform coefficient coding of image and video data for a video encoder or decoder, the method comprising: receiving input data associated with a current TU, transform unit, corresponding to a block of a current picture; determining a CG, coding group, size, where the CG size is adaptively determined based on the current TU, and the current TU is divided into one or more current CGs, coding groups, according to the CG size; and encoding or decoding bins associated with coefficients of the current TU according to a selected CG scan path through the current TU and one or more coefficient scan paths within each current CG, characterized in that if a TU width is larger than a TU height for the current TU, a CG width is selected to be larger than a CG height for said one or more current CGs, and if the TU height is larger than the TU width for the current TU, the CG height is selected to be larger than the CG width for said one or more current CGs. receiving input data associated with a current TU, transform unit, corresponding to a block of a current picture; determining a CG, coding group, size, where the CG size is adaptively determined based on the current TU, and the current TU is divided into one or more current CGs, coding groups, according to the CG size; and encoding or decoding bins associated with coefficients of the current TU according to a selected CG scan path through the current TU and one or more coefficient scan paths within each current CG, characterized in that if a TU width is larger than a TU height for the current TU, a CG width is selected to be larger than a CG height for said one or more current CGs, and if the TU height is larger than the TU width for the current TU, the CG height is selected to be larger than the CG width for said one or more current CGs.
A combination sight for designating a weapon's point of aim when pointed at a target, comprising: a. a telescopic sight; said telescopic sight comprising an objective lens, an image-erecting means, and an eyepiece lens; said telescopic sight having a first aiming axis and a first viewing axis; b. a reflector sight; said reflector sight having a second aiming axis and a second viewing axis; said reflector sight being mounted on the top of said telescopic sight such that said second aiming axis is substantially parallel to said first aiming axis, c. a wedge prism, said wedge prism having an apex and a base; characterized by said wedge prism being positioned either between said image-erecting means and said eyepiece lens or after said eyepiece lens; said wedge prism being mounted such that it tilts said first viewing axis towards said second viewing axis; whereby a shooter can aim through said telescopic sight and said reflector sight using the same head position. a. a telescopic sight; said telescopic sight comprising an objective lens, an image-erecting means, and an eyepiece lens; said telescopic sight having a first aiming axis and a first viewing axis; b. a reflector sight; said reflector sight having a second aiming axis and a second viewing axis; said reflector sight being mounted on the top of said telescopic sight such that said second aiming axis is substantially parallel to said first aiming axis, c. a wedge prism, said wedge prism having an apex and a base; characterized by said wedge prism being positioned either between said image-erecting means and said eyepiece lens or after said eyepiece lens; said wedge prism being mounted such that it tilts said first viewing axis towards said second viewing axis;
A battery module comprising: a battery cell stack , in which a plurality of battery cells comprising electrode leads , are stacked; a busbar connecting the electrode leads ; and a temperature control unit that is located at one side of the battery cell stack and makes contact with the electrode leads , wherein the temperature control unit comprises a heat transfer member that makes contact with the electrode leads and a thermoelectric element capable of being heated and cooled, and wherein the heat transfer member comprises a metal layer and a metal oxide layer disposed on one surface of the metal layer and located between the metal layer and the electrode leads , wherein the electrode leads comprise welding portions bonded to the busbars or the other electrode leads and a connecting portion connecting the welding portions and the battery cells , wherein the at least one of the welding portions is configured such that one surface thereof is bonded to the busbar or the other electrode lead , and the other surface that is opposite to the one surface makes contact with the metal oxide layer of the heat transfer member , and wherein the thermoelectric element makes contact with the metal layer of the heat transfer member . a battery cell stack , in which a plurality of battery cells comprising electrode leads , are stacked; a busbar connecting the electrode leads ; and a temperature control unit that is located at one side of the battery cell stack and makes contact with the electrode leads , wherein the temperature control unit comprises a heat transfer member that makes contact with the electrode leads and a thermoelectric element capable of being heated and cooled, and wherein the heat transfer member comprises a metal layer and a metal oxide layer disposed on one surface of the metal layer and located between the metal layer and the electrode leads , wherein the electrode leads comprise welding portions bonded to the busbars or the other electrode leads and a connecting portion connecting the welding portions and the battery cells , wherein the at least one of the welding portions is configured such that one surface thereof is bonded to the busbar or the other electrode lead , and the other surface that is opposite to the one surface makes contact with the metal oxide layer of the heat transfer member , and wherein the thermoelectric element makes contact with the metal layer of the heat transfer member .
A vessel sealing and cutting system comprising a surgical equipment comprising a lower jaw and an upper jaw , said jaws defining a holder tip that is adapted to grab the vessels inside a grabbing region in tissues having vessels, a lower body embodied at the continuation of said upper jaw , a laser source connected to said surgical equipment , a module housing extending inside said lower body and said upper jaw , and a laser module positioned in said module housing which is adapted to transmit a laser light to the grabbing region from said holder tip in a simultaneous manner with the closing of the jaws; wherein said laser module comprises an outer body placed in the lower body and a tip part embodied at the continuation of the outer body placed into the upper jaw , wherein an optical opening is embodied at the upper jaw in a manner providing transmission of the laser light directed from the upper jaw to the grabbing region through the tip part , a laser processing mechanism is provided in said outer body in a manner providing direction of the laser light, generated by the laser source , through the optical opening , said laser processing mechanism comprising an inner transmission line connected to the laser source , characterised in that the laser processing mechanism further comprises: a regulatory lens , a focusing lens and a prism positioned inside the outer body , respectively, and adapted to transmit the laser light, exiting said inner transmission line (20 41), to the tip part .