mhurhangee/patent-ind-claim-en huggingface dataset:
An anti-glare mirror with an image display function, the anti-glare mirror comprising, in this order: an image display device ; a first 1/4 wavelength plate; a circular polarization reflection layer; a liquid crystal cell ; a second 1/4 wavelength plate ; and a linear polarizing plate , wherein the circular polarization reflection layer includes a cholesteric liquid crystal layer obtained by curing a coating layer of a liquid crystal composition containing a polymerizable liquid crystal compound, wherein the circular polarization reflection layer and the first 1/4 wavelength plate are in direct contact with each other, and wherein the liquid crystal cell includes two substrates facing each other, a driving liquid crystal layer made of a liquid crystal sealed in a space formed between the two substrates, and an electrode formed on a surface on a side of the driving liquid crystal layer of each of the two substrates, in the driving liquid crystal layer, liquid crystal molecules are nematically aligned horizontally with respect to the two substrates in a case of no voltage application, and are nematically aligned vertically with respect to the two substrates in a case of voltage application, the driving liquid crystal layer has a 1/2 wavelength phase difference in a case of no voltage application. an image display device ; a first 1/4 wavelength plate; a circular polarization reflection layer; a liquid crystal cell ; a second 1/4 wavelength plate ; and a linear polarizing plate , wherein the circular polarization reflection layer includes a cholesteric liquid crystal layer obtained by curing a coating layer of a liquid crystal composition containing a polymerizable liquid crystal compound, wherein the circular polarization reflection layer and the first 1/4 wavelength plate are in direct contact with each other, and wherein the liquid crystal cell includes two substrates facing each other, a driving liquid crystal layer made of a liquid crystal sealed in a space formed between the two substrates, and an electrode formed on a surface on a side of the driving liquid crystal layer of each of the two substrates, in the driving liquid crystal layer, liquid crystal molecules are nematically aligned horizontally with respect to the two substrates in a case of no voltage application, and are nematically aligned vertically with respect to the two substrates in a case of voltage application, the driving liquid crystal layer has a 1/2 wavelength phase difference in a case of no voltage application.
Conductor connection terminal , comprising: a) at least one insulating material housing which has at least one conductor insertion opening for inserting an electrical conductor into the insulating material housing , b) at least one contact insert which is arranged at least predominantly inside the insulating material housing and which has at least one clamping spring , c) at least one actuating lever which is formed as a component separate from the insulating material housing and by means of which the clamping spring can be deflected, the actuating lever being pivotable at least from an open position into a closed position and vice versa, d) wherein the insulating material housing has at least one main housing part and one cover part as separate components, which can be positively fixed to the main housing part by means of at least one positive-locking element , wherein the main housing part has an upper side , on which the actuating lever projects out of the main housing part at least in the open position, and a lower side opposite the upper side , wherein the main housing part has a plurality of vertical walls , the cover part having the at least one conductor insertion opening , characterized in that a lateral fixing element is arranged on at least one vertical wall , by means of which the cover part can be fixed laterally to the main housing part by positive locking. a) at least one insulating material housing which has at least one conductor insertion opening for inserting an electrical conductor into the insulating material housing , b) at least one contact insert which is arranged at least predominantly inside the insulating material housing and which has at least one clamping spring , c) at least one actuating lever which is formed as a component separate from the insulating material housing and by means of which the clamping spring can be deflected, the actuating lever being pivotable at least from an open position into a closed position and vice versa, d) wherein the insulating material housing has at least one main housing part and one cover part as separate components, which can be positively fixed to the main housing part by means of at least one positive-locking element ,
A surgical robot system for surgery on an anatomical feature of a patient, the system comprising: - a surgical robot ; - a robot arm connected to the surgical robot ; - an end-effector connected to the robot arm and orientable to oppose the anatomical feature so as to be in operative proximity thereto; - a plurality of surgical tools , each of the tools selectively connectible to the end-effector ; - a processor circuit; - a memory accessible by the processor circuit and comprising machine-readable instructions configured to cause, when executed, the end-effector to move relative to the anatomical feature; - a tool-insert locking mechanism located on and connected to the end-effector and configured to secure any selected one of the plurality of surgical tools at a respective, predetermined height, angle of orientation, and rotational position relative to the anatomical feature of the patient; and - a tool stop located on and connected to the end-effector and having a stop mechanism and a sensor ; - wherein the stop mechanism is configured to be selectively moveable between an engaged position to prevent any of the tools from being connected to the end-effector and a disengaged position to permit any of the tools to be selectively connected to the end-effector ; - wherein the sensor is configured to detect the positions of the stop mechanism ; and - wherein, in response to detection of the disengaged position, the sensor causes the processor to execute instructions to prevent movement of the end-effector relative to the anatomical feature. - a surgical robot ; - a robot arm connected to the surgical robot ; - an end-effector connected to the robot arm and orientable to oppose the anatomical feature so as to be in operative proximity thereto; - a plurality of surgical tools , each of the tools selectively connectible to the end-effector ; - a processor circuit; - a memory accessible by the processor circuit and comprising machine-readable instructions configured to cause, when executed, the end-effector to move relative to the anatomical feature; - a tool-insert locking mechanism located on and connected to the end-effector and configured to secure any selected one of the plurality of surgical tools at a respective, predetermined height, angle of orientation, and rotational position relative to the anatomical feature of the patient; and - a tool stop located on and connected to the end-effector and having a stop mechanism and a sensor ; - wherein the stop mechanism is configured to be selectively moveable between an engaged position to prevent any of the tools from being connected to the end-effector and a disengaged position to permit any of the tools to be selectively connected to the end-effector ; - wherein the sensor is configured to detect the positions of the stop mechanism ; and - wherein, in response to detection of the disengaged position, the sensor causes the processor to execute instructions to prevent movement of the end-effector relative to the anatomical feature.
A lawn ground management system including an autonomous work vehicle configured to perform a mowing operation by a work unit while autonomously traveling in a work area, wherein the work unit includes a mowing blade , a charging station configured to perform power supply to the autonomous work vehicle, and a locking means for locking the autonomous work vehicle to the charging station for anti-theft performance in a state in which the autonomous work vehicle is located at a charging position to receive the power supply, and characterized in that the charging station includes a locking member configured to lock the blade .
Marker for the identification of a QTL leading to TBRFV resistance in a Solanum lycopersicum plant, which marker is selected from SEQ ID Nos. 1-25.
Motor vehicle hood latch, comprising a locking mechanism consisting substantially of a catch and a pawl , and a positioning device for a locking bolt or another stop part on a hood , the positioning device being equipped with an actuating means for realizing a lifting position of the hood , the actuating means being acted upon by a locking mechanism component for interaction with the hood , characterized in that the actuating means is made of plastics material and is a component of a plastics casing of the relevant locking mechanism component .
Battery pack for a motor vehicle fitted with an electric traction motor and an electrical on-board network (R2), including a set of cells (C 1 to C N ), said set of cells comprising a first group of cells (G1) for supplying the electric motor with power and a second group (G2) of at least one cell that is distinct from those of the first group (G1), for supplying the on-board network of the vehicle with power, characterized in that the second group (G2) delivers a supply voltage suitable for the on-board network, without intermediate voltage converter, in order to supply the on-board network of the vehicle with power directly, the first group of cells (G1) delivering, to its terminals , a high voltage (+HT, -HT) relative to the voltage of the on-board network (R2), the two groups (G1, G2) being electrically isolated from one another, and forming two distinct batteries, when said groups supply power to, respectively, said electric motor and said on-board network of the vehicle and the cell groups connected in series via a relay in order to charge the two groups of cells simultaneously.
Use of an amine of the formula (I) for curing of epoxy resins: where R is H or methyl, and A is a phenylene or cyclohexylene radical. R is H or methyl, and A is a phenylene or cyclohexylene radical.
A sorbent cartridge, comprising: at least one reusable module containing one or more rechargeable sorbent materials, and a second module connected in series and forming a sorbent cartridge, the at least one reusable module having one or more connectors selectively fluidly connectable to any part of a fluid flow path selected from any one of a wash line , a bypass line , a fluid line or the second module; wherein the wash line is a line fluidly connectable to a recharger to direct fluid between the recharger and the reusable module; wherein the bypass line is a line fluidly connectable to another module; and wherein the fluid line is fluidly connectable to any portion of a dialysis circuit; and wherein the recharger contains solutions for recharging the sorbent material within the reusable module; said sorbent cartridge further comprising at least one valve positioned before and/or after the modules on the connectors to selectively direct flow through at least one module, wash line, recharger, or bypass line; wherein the reusable module is configured to be in an inline state by being fluidly connected to any one of the fluid line or the bypass line, and wherein the reusable module is configured to be in an off-line state by being fluidly connected to the recharger, wherein "in-line" refers to a state in which the module is fluidly connected to a dialysis machine, dialysis flow path or dialysis circuit, and wherein "off-line" refers to a state in which the module is fluidly disconnected from a dialysis machine, dialysis flow path or dialysis circuit. at least one reusable module containing one or more rechargeable sorbent materials, and a second module connected in series and forming a sorbent cartridge, the at least one reusable module having one or more connectors selectively fluidly connectable to any part of a fluid flow path selected from any one of a wash line , a bypass line , a fluid line or the second module; wherein the wash line is a line fluidly connectable to a recharger to direct fluid between the recharger and the reusable module; wherein the bypass line is a line fluidly connectable to another module; and wherein the fluid line is fluidly connectable to any portion of a dialysis circuit; and wherein the recharger contains solutions for recharging the sorbent material within the reusable module; said sorbent cartridge further comprising at least one valve positioned before and/or after the modules on the connectors to selectively direct flow through at least one module, wash line, recharger, or bypass line; wherein the reusable module is configured to be in an inline state by being fluidly connected to any one of the fluid line or the bypass line, and wherein the reusable module is configured to be in an off-line state by being fluidly connected to the recharger,
A gas filter having an upstream facing side , a downstream facing side and a peripheral narrow facing side connecting the upstream facing side and the downstream facing side , the gas filter comprising at least: - a filter medium , for filtering a gas flow from the upstream facing side through the filter medium to the downstream facing side , wherein the filter medium comprises and/or forms a capacitor, and wherein the capacitor has at least a first electrode , a second electrode and a dielectric medium , wherein the first electrode , the second electrode and/or the dielectric medium is a filter layer, - at least a first non-conducting support , wherein the capacitor is attached to the first support - a first electrical contact (T1) at a first location, - a second electrical contact (T2) at a second location, - a branching point (B), a first resistance (R1) and a second resistance (R2) wherein each of the first electrical contact (T1) and the second electrical contact (T2) is attached to the support and/or is unitary with the support, each of the branching point (B), the first resistance (R1) and the second resistance (R2) is attached to the support or is a part of the support, the first electrical contact (T1) is electrically connected via the first resistance (R1) to the branching point (B), the second electrical contact (T2) is electrically connected via the second resistance (R2) to the branching point (B) the first electrode is electrically connected to the branching point (B), and the second electrode is electrically connected to the second electrical contact (T2)., - a filter medium , for filtering a gas flow from the upstream facing side through the filter medium to the downstream facing side , wherein the filter medium comprises and/or forms a capacitor, and wherein the capacitor has at least a first electrode , a second electrode and a dielectric medium , wherein the first electrode , the second electrode and/or the dielectric medium is a filter layer, - at least a first non-conducting support , wherein the capacitor is attached to the first support - a first electrical contact (T1) at a first location, - a second electrical contact (T2) at a second location, - a branching point (B), a first resistance (R1) and a second resistance (R2) each of the first electrical contact (T1) and the second electrical contact (T2) is attached to the support and/or is unitary with the support, each of the branching point (B), the first resistance (R1) and the second resistance (R2) is attached to the support or is a part of the support, the first electrical contact (T1) is electrically connected via the first resistance (R1) to the branching point (B), the second electrical contact (T2) is electrically connected via the second resistance (R2) to the branching point (B) the first electrode is electrically connected to the branching point (B), and the second electrode is electrically connected to the second electrical contact (T2).,
A turbine engine comprising; a core having compressor , combustor , and turbine sections in axial flow arrangement, with corresponding rotating elements , including a spinner mounted to a shaft to define engine rotor elements ; a rotary driver operably coupled to a friction driver , wherein the friction driver is removably attached to the spinner such that the rotary driver can turn the spinner of the engine rotor elements ; and at least one thermoelectric generator in thermal communication with the core and in electrical communication with the rotary driver to provide power to the rotary driver to turn the engine rotor elements .
Process for the production of a base for ragù or stuffings, comprising minced meat, vegetables and optional complementary ingredients, said process comprising a step a) of subjecting minced meat and optionally minced or chopped vegetables and complementary ingredients to a blanching in water at a temperature of 90°-100°C for 4-8 minutes and a subsequent step b) of browning said blanched minced meat and, optionally, said blanched vegetables and complementary ingredients.
A user terminal , comprising: a receiver that is adapted to receive a list transmitted from a base station , the list including discovery resource configurations; characterized by a controller that is adapted to select, based on a discovery identifier received from the base station, a discovery resource configuration from among the discovery resource configurations, and to use the selected discovery resource configuration to directly transmit a discovery signal to other user terminals , wherein the list further includes discovery identifiers each of which is associated with a discovery resource configuration, and each of the discovery resource configurations includes: time resource information indicating time resources used for transmitting a discovery signal; frequency resource information indicating frequency resources used for transmitting the discovery signal and including a range of continuous resource block numbers; and power information indicating transmission power used for transmitting the discovery signal. a receiver that is adapted to receive a list transmitted from a base station , the list including discovery resource configurations; characterized by a controller that is adapted to select, based on a discovery identifier received from the base station, a discovery resource configuration from among the discovery resource configurations, and to use the selected discovery resource configuration to directly transmit a discovery signal to other user terminals , wherein the list further includes discovery identifiers each of which is associated with a discovery resource configuration, and each of the discovery resource configurations includes: time resource information indicating time resources used for transmitting a discovery signal; frequency resource information indicating frequency resources used for transmitting the discovery signal and including a range of continuous resource block numbers; and power information indicating transmission power used for transmitting the discovery signal. time resource information indicating time resources used for transmitting a discovery signal; frequency resource information indicating frequency resources used for transmitting the discovery signal and including a range of continuous resource block numbers; and power information indicating transmission power used for transmitting the discovery signal.
A system for data collection, comprising: at least one data generation device or system configured to generate location or position data; at least one ID tag attached to said at least one data generation device or system , said ID tag having an externally readable code; a data collection device having an ID tag reader configured to identify said at least one data generation device or system by reading said externally readable code corresponding to said ID tag ; wherein said data generation device or system is configured to wirelessly transmit said location or position data from said data generation device or system to said data collection device according to transmission parameters, and wherein said data collection device further comprises a wireless receiver configured to wirelessly collect said location or position data from said at least one data generation device or system , characterized in that the ID tag reader is further configured to identify said transmission parameters for effecting proper data transmission of the generated data from the identified data generation device or system . at least one data generation device or system configured to generate location or position data; at least one ID tag attached to said at least one data generation device or system , said ID tag having an externally readable code; a data collection device having an ID tag reader configured to identify said at least one data generation device or system by reading said externally readable code corresponding to said ID tag ; wherein said data generation device or system is configured to wirelessly transmit said location or position data from said data generation device or system to said data collection device according to transmission parameters, and wherein said data collection device further comprises a wireless receiver configured to wirelessly collect said location or position data from said at least one data generation device or system ,
A textile machine configured to unwind a yarn from a yarn feed bobbin and to wind the yarn onto a package , the textile machine comprising a calculation section configured to calculate a standard value of an amount of waste yarn emitted by yarn cutting accompanying a drawing operation of drawing out a yarn from the yarn feed bobbin .