mhurhangee/patent-ind-claim-en huggingface dataset:
Upright comprising two sidewalls between which a profiled element for a shading system can be inserted, an end wall between the two sidewalls and an opening situated opposite the end wall , wherein one of the sidewalls is removable, the other one of the two sidewalls is non-removable, and elastic means are arranged between the removable sidewall and the non-removable sidewall in order to retain the removable sidewall between the end wall and the non-removable sidewall , wherein the end wall comprises a profile for retaining the removable sidewall and the removable sidewall comprises a locating profile engaged with the retaining profile of the end wall , characterized by the fact that the elastic means are associated with a flange of the removable sidewall , extending parallel to the end wall when the removable sidewall and the end wall are assembled, the elastic means are extendable and compressible along a compression axis parallel to the end wall , and that the upright further comprises a shoulder parallel to the end wall defining with the end wall a seat for the elastic means and at least part of the flange , the shoulder projecting from the non-removable sidewall .
An engine fuel composition comprising: at least one liquid hydrocarbon fraction from one or more sources selected from the group consisting of mineral, animal, plant and synthetic sources, and from 1 to 10,000 ppm by weight of an additive which comprises at least 6% by weight, with respect to the total weight of the additive, of one or more compounds selected from free sterols and/or sterol esters and from 70% to 94% by weight, with respect to the total weight of the additive, of free fatty acids. at least one liquid hydrocarbon fraction from one or more sources selected from the group consisting of mineral, animal, plant and synthetic sources, and from 1 to 10,000 ppm by weight of an additive which comprises at least 6% by weight, with respect to the total weight of the additive, of one or more compounds selected from free sterols and/or sterol esters and from 70% to 94% by weight, with respect to the total weight of the additive, of free fatty acids.
A solid oxide fuel cell comprising a unit cell including: a fuel electrode, an air electrode and electrolyte disposed between the fuel electrode and the air electrodes; a separator for separating a fuel gas flowing though the fuel electrode and air flowing through the air electrode; and a sealing constituted of a glass composition for bonding the separator and the electrolyte, wherein the glass composition is mainly composed of Al2O3 and SiO 2 , at least a first region of the sealing exposed to the fuel gas and the air does not contain Ba, wherein the first region is a predetermined region from the interfaces respectively coming into contact with the fuel gas and the air toward the inside of the sealing portion, at least a second region of the sealing excluding the first region, wherein the second region does not come into contact with the fuel gas and the air toward the inside of the sealing portion, and wherein the second region contains Ba. a fuel electrode, an air electrode and electrolyte disposed between the fuel electrode and the air electrodes; a separator for separating a fuel gas flowing though the fuel electrode and air flowing through the air electrode; and a sealing constituted of a glass composition for bonding the separator and the electrolyte, wherein the glass composition is mainly composed of Al2O3 and SiO 2 , at least a first region of the sealing exposed to the fuel gas and the air does not contain Ba, wherein the first region is a predetermined region from the interfaces respectively coming into contact with the fuel gas and the air toward the inside of the sealing portion, at least a second region of the sealing excluding the first region, wherein the second region does not come into contact with the fuel gas and the air toward the inside of the sealing portion, and wherein the second region contains Ba.
An automated medical system , comprising: a robot support system comprising: a robot arm ; an end effector coupled at a distal end of the robot arm and configured to hold an end effector tool ; a plurality of motors operable to move the robot arm ; and a light indicator configured to illuminate to indicate conditions in which automated medical system is currently operating; wherein the end effector includes a load cell configured to track the force applied to the end effector , an activation assembly operable to send a move signal allowing an operator to move the robot arm , and a tool connection , the tool connection attaches to the load cell , the tool connection comprises attachment points and tool guides or tool connections , characterised in that the light indicator is positioned on top of the robot arm ; the end effector includes a saddle joint adapted to attach to the robot arm ; the activation assembly is configured to encircle the tool connection and the load cell ; and the tool connection comprises a sensory button , wherein when the end effector tool is connected to the end effector , the sensory button is depressed alerting the robot support system , and medical personnel, that the end effector tool has been attached to the end effector . a robot arm ; an end effector coupled at a distal end of the robot arm and configured to hold an end effector tool ; a plurality of motors operable to move the robot arm ; and a light indicator configured to illuminate to indicate conditions in which automated medical system is currently operating; wherein the end effector includes a load cell configured to track the force applied to the end effector , an activation assembly operable to send a move signal allowing an operator to move the robot arm , and a tool connection , the tool connection attaches to the load cell , the tool connection comprises attachment points and tool guides or tool connections , characterised in that the light indicator is positioned on top of the robot arm ; the end effector includes a saddle joint adapted to attach to the robot arm ; the activation assembly is configured to encircle the tool connection and the load cell ; and the tool connection comprises a sensory button , wherein when the end effector tool is connected to the end effector , the sensory button is depressed alerting the robot support system , and medical personnel, that the end effector tool has been attached to the end effector .
A method of forming a sheet metal blank , e.g. a board, as a workpiece in a forming die, e.g. in a forming press , wherein the forming die has at least one cavity and advantageously at least one blankholder for fixing the workpiece to the cavity during the forming, characterized in that the forming takes place in the solution heat treatment temperature range of the material of the workpiece to be formed, with the die being set to the solution heat treatment temperature specific to the workpiece. with the pressure of the blankholder or of the marginal region of the cavity onto the workpiece being selected such that material of the workpiece can flow from the region of the blankholder or of the marginal region of the cavity into the cavity ; and/or with material of the workpiece being actively pushed into the cavity ; or with the forming taking place entirely without any additional workpiece material in the cavity .
A compound comprising: - at least one antifouling moiety being di-(4-fluoro)phenylalanine (di- Phe), - at least one surface-adsorbing moiety being DOPA, and - at least one amino acid sequence promoting adherence of cells being RGD. - at least one antifouling moiety being di-(4-fluoro)phenylalanine (di- Phe), - at least one surface-adsorbing moiety being DOPA, and - at least one amino acid sequence promoting adherence of cells being RGD.
A device for controlling a heating, ventilation, and air conditioning (HVAC) system within a building, the device comprising: a dial including a set of LEDs ; an analog display including a set of markers ; and processing circuitry configured to: determine whether one of a cooling set point mode and a heating set point mode is activated; cause , after determining whether one of the cooling set point mode and the heating set point mode is activated and in response to receiving a first rotation input to the dial , a set point to change from a first set point value to a second set point value; and control the set of LEDs to transition from illuminating a first marker of the set of markers to illuminating a second marker of the set of markers , wherein the first marker corresponds to the first set point value and the second marker corresponds to the second set point value. a dial including a set of LEDs ; an analog display including a set of markers ; and processing circuitry configured to: determine whether one of a cooling set point mode and a heating set point mode is activated; cause , after determining whether one of the cooling set point mode and the heating set point mode is activated and in response to receiving a first rotation input to the dial , a set point to change from a first set point value to a second set point value; and control the set of LEDs to transition from illuminating a first marker of the set of markers to illuminating a second marker of the set of markers , wherein the first marker corresponds to the first set point value and the second marker corresponds to the second set point value. determine whether one of a cooling set point mode and a heating set point mode is activated; cause , after determining whether one of the cooling set point mode and the heating set point mode is activated and in response to receiving a first rotation input to the dial , a set point to change from a first set point value to a second set point value; and control the set of LEDs to transition from illuminating a first marker of the set of markers to illuminating a second marker of the set of markers , wherein the first marker corresponds to the first set point value and the second marker corresponds to the second set point value.
A method for transmitting a sounding reference symbol, SRS, by a user equipment, UE, the method comprising: receiving, from a base station, control information, wherein the control information requests the UE to transmit an aperiodic SRS in a plurality of slots; and transmitting the aperiodic SRS in the plurality of slots based on the control information, wherein the control information is received when a total number of uplink transmission beams exceeds a maximum number of SRS beams transmittable in one slot or a number of ports for SRS transmission exceeds a maximum number of ports for the SRS transmission in one slot, wherein the uplink transmission beams are an uplink beam set required for an uplink beam correction operation, wherein the control information further comprises uplink transmission beam information for transmitting the aperiodic SRS in the plurality of slots, wherein the aperiodic SRS is transmitted by using uplink transmission beams indicated in the uplink transmission beam information, wherein the maximum number of the SRS beams is determined based on a number of radio frequency, RF, chains of the UE, and wherein a multiplexing method between SRS ports and SRS resources is determined based on the number of the RF chains of the UE. receiving, from a base station, control information, wherein the control information requests the UE to transmit an aperiodic SRS in a plurality of slots; and transmitting the aperiodic SRS in the plurality of slots based on the control information, wherein the control information is received when a total number of uplink transmission beams exceeds a maximum number of SRS beams transmittable in one slot or a number of ports for SRS transmission exceeds a maximum number of ports for the SRS transmission in one slot, wherein the uplink transmission beams are an uplink beam set required for an uplink beam correction operation, wherein the control information further comprises uplink transmission beam information for transmitting the aperiodic SRS in the plurality of slots, wherein the aperiodic SRS is transmitted by using uplink transmission beams indicated in the uplink transmission beam information, wherein the maximum number of the SRS beams is determined based on a number of radio frequency, RF, chains of the UE, and wherein a multiplexing method between SRS ports and SRS resources is determined based on the number of the RF chains of the UE.
A processor resources-implemented method for controlling zoom in a media module in a mobile communication device, the communication device comprising a plurality of different media modules, wherein the media modules comprise at least a still camera module and a video camera module, each media module having associated differing zoom specifications, the method comprising, for one of the different media modules of the plurality of media modules: requesting the media module zoom specifications ; receiving the media module zoom specifications comprising zoom range ; dividing the received zoom range in to n discrete steps ; presenting a zoom bar on the device display , wherein the zoom bar comprises: an indicator of increasing zoom direction , an indicator of decreasing zoom direction , and a slider bar : the slider bar disposed between the indicators, and the slider bar displaying zoom level as one of the n discrete steps from a first step equal to no zoom level, and an nth step equal to full zoom level; receiving user input regarding a zoom level ; performing zoom on the displayed image to a level corresponding to the received input ; and displaying the relative zoom level in the zoom bar . requesting the media module zoom specifications ; receiving the media module zoom specifications comprising zoom range ; dividing the received zoom range in to n discrete steps ; presenting a zoom bar on the device display , wherein the zoom bar comprises: an indicator of increasing zoom direction , an indicator of decreasing zoom direction , and a slider bar : the slider bar disposed between the indicators, and the slider bar displaying zoom level as one of the n discrete steps from a first step equal to no zoom level, and an nth step equal to full zoom level; an indicator of increasing zoom direction , an indicator of decreasing zoom direction , and a slider bar : the slider bar disposed between the indicators, and the slider bar displaying zoom level as one of the n discrete steps from a first step equal to no zoom level, and an nth step equal to full zoom level; the slider bar disposed between the indicators, and the slider bar displaying zoom level as one of the n discrete steps from a first step equal to no zoom level, and an nth step equal to full zoom level; receiving user input regarding a zoom level ; performing zoom on the displayed image to a level corresponding to the received input ; and displaying the relative zoom level in the zoom bar .
A service parameter configuration method based on a distributed converged cable access platform, D-CCAP, comprising: determining, by an element management system, EMS , a service configuration parameter for an optical node device set, wherein the optical node device set comprises at least two optical node devices; sending, by the EMS , the service configuration parameter for the optical node device set to a forwarding device by encapsulating the service configuration parameter into an IP packet, configuring a destination IP address of the IP packet as the IP address of the forwarding device and sending the IP packet to the forwarding device ; determining, by the forwarding device based on a connection relationship between a local port and each optical node device, a target port connected to each of the at least two optical node device; and sending, by the forwarding device , the service configuration parameter to each of the at least two optical node device through the determined target port connected to the optical node devices.. determining, by an element management system, EMS , a service configuration parameter for an optical node device set, wherein the optical node device set comprises at least two optical node devices; sending, by the EMS , the service configuration parameter for the optical node device set to a forwarding device by encapsulating the service configuration parameter into an IP packet, configuring a destination IP address of the IP packet as the IP address of the forwarding device and sending the IP packet to the forwarding device ; determining, by the forwarding device based on a connection relationship between a local port and each optical node device, a target port connected to each of the at least two optical node device; and sending, by the forwarding device , the service configuration parameter to each of the at least two optical node device through the determined target port connected to the optical node devices..
A transmitter for musical instrument , the transmitter being configured to transmit a sound signal emitted from a musical instrument to an outside using a battery arranged inside a main body of the transmitter , wherein the transmitter for musical instrument has a first mode and a second mode in which power consumption of the battery is smaller than the first mode, and the transmitter for musical instrument comprises a detection part for detecting an acceleration of the main body, a release part (S8) for releasing the second mode to transition to the first mode when the detection value of the detection part exceeds a release threshold value in the second mode, and characterised by a release threshold value setting part (S8) for setting the release threshold value based on the detection value of the detection part at a time of transition from the first mode to the second mode. the transmitter for musical instrument has a first mode and a second mode in which power consumption of the battery is smaller than the first mode, and the transmitter for musical instrument comprises a detection part for detecting an acceleration of the main body, a release part (S8) for releasing the second mode to transition to the first mode when the detection value of the detection part exceeds a release threshold value in the second mode, and characterised by a release threshold value setting part (S8) for setting the release threshold value based on the detection value of the detection part at a time of transition from the first mode to the second mode.
Multilayer stack of use in forming a photovoltaic device, said stack comprising at least one succession of superposed layers that are contiguous with one another in the following order: (a) an n-type semiconducting layer , referred to as electron injection layer; (b) a perovskite-type active layer ; (c) a p-type conducting structure , referred to as hole transport layer, comprising at least one layer of a conducting material based on poly(3,4-ethylenedioxythiophene) (PEDOT) combined with one or more counterions chosen from poly(styrene sulfonate) (PSS), tosylate (OTs), triflate (OTf) and methylsulfonate (OMs); characterized in that the p-type structure further comprises at least one layer of π-conjugated semiconducting polymer, different from PEDOT and comprising at least one thiophene unit, said layer being contiguous with one of the faces of said layer of PEDOT-based conducting material, said layer of conducting material based on PEDOT with counterion(s) having a thickness less than or equal to 200 nm, and said layer of π-conjugated semiconducting polymer having a thickness less than or equal to 20 nm. (a) an n-type semiconducting layer , referred to as electron injection layer; (b) a perovskite-type active layer ; (c) a p-type conducting structure , referred to as hole transport layer, comprising at least one layer of a conducting material based on poly(3,4-ethylenedioxythiophene) (PEDOT) combined with one or more counterions chosen from poly(styrene sulfonate) (PSS), tosylate (OTs), triflate (OTf) and methylsulfonate (OMs); said layer of conducting material based on PEDOT with counterion(s) having a thickness less than or equal to 200 nm, and said layer of π-conjugated semiconducting polymer having a thickness less than or equal to 20 nm.
A microbial fuel cell system comprising: a supply-drain compartment to which an electrolysis solution is supplied and from which the electrolysis solution is drained; a negative electrode soaked in the electrolysis solution and holding electricity-producing bacteria on a surface thereof; and a positive electrode soaked in the electrolysis solution , including at least a part exposed to a gas phase , and holding nitrifying bacteria on a surface thereof excluding the part exposed to the gas phase , the positive electrode being a gas diffusion electrode including a water-repellent layer and a gas diffusion layer in contact with the water-repellent layer , wherein the water-repellent layer is in contact with the gas phase , wherein at least one of the surface of the positive electrode excluding the part exposed to the gas phase and the electrolysis solution holds denitrifying bacteria, and the denitrifying bacteria held in the electrolysis solution are collected around the positive electrode . a supply-drain compartment to which an electrolysis solution is supplied and from which the electrolysis solution is drained; a negative electrode soaked in the electrolysis solution and holding electricity-producing bacteria on a surface thereof; and a positive electrode soaked in the electrolysis solution , including at least a part exposed to a gas phase , and holding nitrifying bacteria on a surface thereof excluding the part exposed to the gas phase , the positive electrode being a gas diffusion electrode including a water-repellent layer and a gas diffusion layer in contact with the water-repellent layer , wherein the water-repellent layer is in contact with the gas phase , wherein at least one of the surface of the positive electrode excluding the part exposed to the gas phase and the electrolysis solution holds denitrifying bacteria, and the denitrifying bacteria held in the electrolysis solution are collected around the positive electrode .
Apparatus for processing a hypodermic needle , comprising: a housing comprising an aperture leading to a containment cylinder for receiving, and constraining, the needle within it; a first electrode for contacting the needle near a first end; a second electrode for contacting the needle at its sharp end; a control system, operable to cause a current to flow in the needle between said first and second electrodes, whereby said current causes the needle to soften and wherein the second electrode is arranged to move within the containment cylinder and to provide an axial compressive force to the needle along the needle's axis, characterised by : the containment cylinder comprising a heater for pre-heating the containment cylinder prior to application of the axial compressive force to the needle . a housing comprising an aperture leading to a containment cylinder for receiving, and constraining, the needle within it; a first electrode for contacting the needle near a first end; a second electrode for contacting the needle at its sharp end; a control system, operable to cause a current to flow in the needle between said first and second electrodes, whereby said current causes the needle to soften and wherein the second electrode is arranged to move within the containment cylinder and to provide an axial compressive force to the needle along the needle's axis, characterised by : the containment cylinder comprising a heater for pre-heating the containment cylinder prior to application of the axial compressive force to the needle .