mhurhangee/patent-ind-claim-en huggingface dataset:
An antibody or antigen-binding fragment thereof which has the same binding specificity and agonistic activity as that of an antibody comprising heavy chain CDR1, CDR2 and CDR3 sequences respectively shown in SEQ ID NO:35, SEQ ID NO:36 and SEQ ID NO:37; and light chain CDR1, CDR2 and CDR3 sequences respectively shown in SEQ ID NO:38, SEQ ID NO:13 and SEQ ID NO:39.
A conference system with low standby power consumption, characterized by comprising: a transmitter comprising: a battery configured to provide power; at least one link port (P1,P2) configured to access data; and a processor coupled to the battery and the at least one link port (P1,P2); an image data source configured to transmit image data to the transmitter ; a receiver linked to the transmitter and configured to receive the image data; and a display device linked to the receiver and configured to display the image data; wherein the processor detects a power channel link state between the image data source and the transmitter through the at least one link port (P1,P2), when the transmitter and the image data source are electrically coupled, the processor ceases to use the battery of the transmitter and controls the image data source for providing power to the transmitter , when the transmitter and the image data source are separated, the processor uses the battery of the transmitter for driving firmware of the transmitter , the power channel link state indicates if the transmitter and the image data source are electrically coupled according to a current between the transmitter and the image data source , after the image data source establishes a link to the transmitter through the at least one link port (P1,P2), the image data is transmitted from the image data source to the receiver through the transmitter , the receiver controls the display device for displaying the image data. a transmitter comprising: a battery configured to provide power; at least one link port (P1,P2) configured to access data; and a processor coupled to the battery and the at least one link port (P1,P2); a battery configured to provide power; at least one link port (P1,P2) configured to access data; and a processor coupled to the battery and the at least one link port (P1,P2); an image data source configured to transmit image data to the transmitter ; a receiver linked to the transmitter and configured to receive the image data; and a display device linked to the receiver and configured to display the image data; wherein the processor detects a power channel link state between the image data source and the transmitter through the at least one link port (P1,P2), when the transmitter and the image data source are electrically coupled, the processor ceases to use the battery of the transmitter and controls the image data source for providing power to the transmitter , when the transmitter and the image data source are separated, the processor uses the battery of the transmitter for driving firmware of the transmitter , the power channel link state indicates if the transmitter and the image data source are electrically coupled according to a current between the transmitter and the image data source , after the image data source establishes a link to the transmitter through the at least one link port (P1,P2), the image data is transmitted from the image data source to the receiver through the transmitter , the receiver controls the display device for displaying the image data.
A method for determining a permission of an application program, comprising: receiving an installation request of a first application, wherein the installation request carries a first permission list that the first application applies for and a first shared user identifier requested by the first application; searching , according to the first shared user identifier, for at least one second application that uses the first shared user identifier and is already installed in a system; if the first application is a plug-in of the second application already installed in the system, determining a permission of the first application according to the first permission list that the first application applies for and a permission in a second permission list corresponding to the first shared user identifier, including determining a permission, which exists in the second permission list, in the first permission list as the permission of the first application; and after the determining the permission of the first application according to the first permission list that the first application applies for and the permission in the second permission list corresponding to the first shared user identifier, adding information about the first application to an installation file of the system, and adding the first shared user identifier to the information about the first application. receiving an installation request of a first application, wherein the installation request carries a first permission list that the first application applies for and a first shared user identifier requested by the first application; searching , according to the first shared user identifier, for at least one second application that uses the first shared user identifier and is already installed in a system; if the first application is a plug-in of the second application already installed in the system, determining a permission of the first application according to the first permission list that the first application applies for and a permission in a second permission list corresponding to the first shared user identifier, including determining a permission, which exists in the second permission list, in the first permission list as the permission of the first application; and after the determining the permission of the first application according to the first permission list that the first application applies for and the permission in the second permission list corresponding to the first shared user identifier, adding information about the first application to an installation file of the system, and adding the first shared user identifier to the information about the first application.
A method for operating an aircraft having two or more engines , the method comprising: operating the two or more engines of the aircraft in an asymmetric operating regime, wherein a first of the engines is in an active mode to provide motive power to the aircraft and a second of the engines is in a standby mode to provide substantially no motive power to the aircraft ; and governing the first engine in the active mode using a first governing logic , characterised in that the method further comprises: governing the second engine in the standby mode using a second governing logic different from the first governing logic , the second governing logic based on a trimmed target compressor speed and trimmed variable geometry mechanism (VGM) settings , the trimmed target compressor speed including a nominal target compressor speed adjusted using a first engine-specific trim value, the trimmed VGM settings including nominal VGM settings adjusted using a second engine-specific trim value, and the first engine-specific trim value and the second engine-specific trim value being specific to the second engine and dependent on at least one parameter of the second engine in the standby mode, the at least one parameter comprising fuel consumption. operating the two or more engines of the aircraft in an asymmetric operating regime, wherein a first of the engines is in an active mode to provide motive power to the aircraft and a second of the engines is in a standby mode to provide substantially no motive power to the aircraft ; and governing the first engine in the active mode using a first governing logic ,
Working machine, comprising an engine room and a housing , wherein the housing at least partially surrounds or can surround the engine room, characterized in that a venting space, in which a line mouth of a line ends, is arranged on the housing, wherein the venting space is delimited from the engine room, preferably delimited in a gas-tight manner, and wherein the venting space is formed by a partial region of the housing and a bottom piece arranged in the engine room.
Air purification device, which has at least one electrostatic filter unit , wherein the electrostatic filter unit comprises an ionisation unit and a separation unit with at least one voltage-carrying collecting electrode and at least one grounded collecting electrode , the at least two collecting electrodes are air-permeable, the air purification device is an extractor hood and the at least one electrostatic filter unit is arranged on the air inlet opening of the extractor hood.
A substance selected from the group of L-dopa + PDI (peripheral decarboxylase inhibitor), L-dopa + PDI (slow release), bromocriptine, pergolide, amantadine, selegiline, rasagiline, cabaser, ropinirole, pramipexole, artane, apomorphine, and entacapone, for use in treating a motor-related neurological condition or at least one symptom of a motor-related neurological condition, characterized in that the use is in combination with light therapy with a light therapy device, which ocularly delivers light with at least one peak at a wavelength therapeutic for the motor related neurological condition or the symptom of the motor related neurological condition, wherein an intensity of therapeutic light of wavelengths within a range of 460 nm to 570 nm is above average ambient and includes a first above average ambient intensity peak in a blue range of wavelengths and a second above average ambient intensity peak in a green range of wavelengths.
A method of processing a sperm sample comprising: extending the sperm sample in an initial extender having a pH between 7.1 and 7.6; centrifuging the extended sperm sample; removing supernatant until the concentration of the sperm sample is between 1400 million sperm per ml and 2100 million sperm per ml; staining the sperm sample with a DNA selective dye; processing the stained sperm sample; and freezing the stained sperm sample, wherein the pH of the sperm sample is maintained between 7.1 and 7.6; through the steps of staining, processing and freezing. extending the sperm sample in an initial extender having a pH between 7.1 and 7.6; centrifuging the extended sperm sample; removing supernatant until the concentration of the sperm sample is between 1400 million sperm per ml and 2100 million sperm per ml; staining the sperm sample with a DNA selective dye; processing the stained sperm sample; and freezing the stained sperm sample, wherein the pH of the sperm sample is maintained between 7.1 and 7.6; through the steps of staining, processing and freezing.
An apparatus, comprising: an installation tool (100; 200; 300; 400; 600; 910; 1010) for attaching an optical fiber (150; 450; 550; 650; 1020) to a structure (190; 490; 590; 690; 1105), the tool comprising: a body (110; 410); one or more contact portions (121, 122; 221, 222; 320; 421, 422; 521, 522; 520C; 520D, 520E, 520F; 621, 622; 1030) supported by the body and configured to secure the optical fiber; an adhesive dispenser (130; 230; 231, 232, 233; 430; 630) proximate the body, the adhesive dispenser configured to dispense at least one adhesive to the optical fiber and the structure; a dispenser controller (140; 240) operatively coupled to the adhesive dispenser, the dispenser controller configured to control the adhesive dispenser; and a strain mechanism (260; 360) configured to pre-strain the optical fiber to a first predetermined pre-strain value, wherein the strain mechanism is configured to move one or both of the contact portions along an x-axis of the tool to impart a pre-determined amount of pre-strain to the optical fiber to the first predetermined pre-strain value, wherein said x-axis extends along the length of the optical fiber. a body (110; 410); one or more contact portions (121, 122; 221, 222; 320; 421, 422; 521, 522; 520C; 520D, 520E, 520F; 621, 622; 1030) supported by the body and configured to secure the optical fiber; an adhesive dispenser (130; 230; 231, 232, 233; 430; 630) proximate the body, the adhesive dispenser configured to dispense at least one adhesive to the optical fiber and the structure; a dispenser controller (140; 240) operatively coupled to the adhesive dispenser, the dispenser controller configured to control the adhesive dispenser; and a strain mechanism (260; 360) configured to pre-strain the optical fiber to a first predetermined pre-strain value, wherein the strain mechanism is configured to move one or both of the contact portions along an x-axis of the tool to impart a pre-determined amount of pre-strain to the optical fiber to the first predetermined pre-strain value, wherein said x-axis extends along the length of the optical fiber.
Method for managing the mobility of a mobile terminal (UE) in a communication network comprising a plurality of access points, the method comprising the following steps: reception (S2), by a quality of service application equipment, of an identifier of a type of service accessed by a mobile terminal; determination, by a quality of service rules server, of a quality of service class on the basis of a service accessed by the mobile terminal; generation (S7), by an access point discovery server for discovering access points of the communication network, of the list of access points by selecting at least one access point of the communication network that is compatible with the quality of service class determined by the quality of service rules server; and transmission (S8) of said list of access points from the access point discovery server to the mobile terminal. reception (S2), by a quality of service application equipment, of an identifier of a type of service accessed by a mobile terminal; determination, by a quality of service rules server, of a quality of service class on the basis of a service accessed by the mobile terminal; generation (S7), by an access point discovery server for discovering access points of the communication network, of the list of access points by selecting at least one access point of the communication network that is compatible with the quality of service class determined by the quality of service rules server; and transmission (S8) of said list of access points from the access point discovery server to the mobile terminal.
Method for landing an aircraft on a watercraft , wherein a watercraft having at least a first sensor , a second sensor , a third sensor and at least a first motion sensor is selected, sensors for determining the position of an aircraft being selected as the first sensor , the second sensor and the third sensor , wherein the method comprises the following steps: a) determining the movement of the watercraft using the first motion sensor , b) determining the position of the aircraft by means of the first sensor , the second sensor and the third sensor , c) predicting the future movement of the watercraft , d) determining an approach route for the aircraft taking into account the predicted future movement of the watercraft , e) transmitting the data of the approach route to the aircraft , characterized in that at least a first data transmission channel is selected for the data transmission in step e), an optical data transmission channel being selected as the first data transmission channel, the position lamps of the watercraft being used for the first optical data transmission channel. a) determining the movement of the watercraft using the first motion sensor , b) determining the position of the aircraft by means of the first sensor , the second sensor and the third sensor , c) predicting the future movement of the watercraft , d) determining an approach route for the aircraft taking into account the predicted future movement of the watercraft , e) transmitting the data of the approach route to the aircraft ,
Current collector for an accumulator with ion insertion or deinsertion, said collector is coated on at least one of the faces thereof with an inactive layer intended for providing the junction between said current collector and an electrode comprising an active material, said inactive layer comprising at least one organic binder and at least one salt, whereof one of the ions is same that is involved in the process of ion insertion or deinsertion in the active material of the electrode, said salt being a sacrificial salt.
A transesterified polylactic acid resulting from the reaction of a reaction mixture comprising: a) polylactic acid present in an amount of from 50 to 85 weight percent based on a total weight of a reaction mixture; b) at least one natural oil present in an amount of from 13 to 30 weight percent based on said total weight of said reaction mixture; c) a diol present in an amount of from 2 to 36 weight percent based on said total weight of said reaction mixture; and d) optionally, a transesterification catalyst, wherein said transesterified polylactic acid is liquid at room temperature. a) polylactic acid present in an amount of from 50 to 85 weight percent based on a total weight of a reaction mixture; b) at least one natural oil present in an amount of from 13 to 30 weight percent based on said total weight of said reaction mixture; c) a diol present in an amount of from 2 to 36 weight percent based on said total weight of said reaction mixture; and d) optionally, a transesterification catalyst,
A process for making expanded poly(lactide) beads, comprising: (a) pressurizing unfoamed beads of a PLA resin blend having a crystallinity of no greater than 10 J/g as measured by differential scanning calorimetry with carbon dioxide to a superatmospheric pressure while maintaining the temperature at or below the 40°C; (b) heating the pressurized unfoamed beads to a temperature between 90°C and 160°C to at least partially crystallize the PLA resin blend to form carbon dioxide-saturated, partially crystallized, unfoamed beads; and then (c) depressurizing the carbon-dioxide-saturated, partially crystallized, unfoamed beads such that the carbon dioxide at least partially vaporizes to expand the beads; and then (d) simultaneously and/or after step (c), cooling the expanded beads to below 40°C, wherein the PLA resin blend includes: i) a first PLA polymer containing at least 88% L-lactic units, based on the total weight of the first PLA polymer; ii) a second PLA polymer containing at least 88% D-lactic units based on the total weight of the second PLA polymer; the first and second PLA copolymers being present in the PLA resin blend at a weight ratio of 75:25 to 98:2 or 25:75 to 2:98. (a) pressurizing unfoamed beads of a PLA resin blend having a crystallinity of no greater than 10 J/g as measured by differential scanning calorimetry with carbon dioxide to a superatmospheric pressure while maintaining the temperature at or below the 40°C; (b) heating the pressurized unfoamed beads to a temperature between 90°C and 160°C to at least partially crystallize the PLA resin blend to form carbon dioxide-saturated, partially crystallized, unfoamed beads; and then (c) depressurizing the carbon-dioxide-saturated, partially crystallized, unfoamed beads such that the carbon dioxide at least partially vaporizes to expand the beads; and then (d) simultaneously and/or after step (c), cooling the expanded beads to below 40°C, wherein the PLA resin blend includes: i) a first PLA polymer containing at least 88% L-lactic units, based on the total weight of the first PLA polymer; ii) a second PLA polymer containing at least 88% D-lactic units based on the total weight of the second PLA polymer; the first and second PLA copolymers being present in the PLA resin blend at a weight ratio of 75:25 to 98:2 or 25:75 to 2:98. wherein the PLA resin blend includes: i) a first PLA polymer containing at least 88% L-lactic units, based on the total weight of the first PLA polymer; ii) a second PLA polymer containing at least 88% D-lactic units based on the total weight of the second PLA polymer; i) a first PLA polymer containing at least 88% L-lactic units, based on the total weight of the first PLA polymer; ii) a second PLA polymer containing at least 88% D-lactic units based on the total weight of the second PLA polymer; the first and second PLA copolymers being present in the PLA resin blend at a weight ratio of 75:25 to 98:2 or 25:75 to 2:98.
Tumble dryer comprising a housing , a rotatable drum arranged in the housing being accessible from a front side of the housing, a fan arrangement for producing a flow of process air through the drum, and a heat pump for drying the process air before entering the drum, the heat pump comprising a condenser , a compressor , and an evaporator , wherein the condenser , the compressor , and the evaporator are arranged as components in a heat pump unit , wherein the heat pump unit is removable from the remainder of the tumble dryer through an opening in the rear side of the housing without separating the components, wherein the heat pump unit comprises a common frame and wherein the condenser the compressor , and the evaporator are attached to the common frame , characterized in that the condenser is located above the compressor , and the evaporator is located in front of the compressor as seen from the front side of the tumble dryer.
An installation (10; 100) for heating and/or producing domestic hot water comprising at least two generators of combustion products (12, 14; 104, 106) that are each connected to a same vertical duct by means of a concentric connecting duct (20, 22; 104, 106), each concentric duct comprising a central duct (20b, 22b; 108b, 110b) for discharging combustion products and a peripheral duct (20a, 22a; 108a, 110a) for supplying oxidizer to the countercurrent generator of the combustion products, the installation including, on the central duct of the concentric connecting duct, at least one closing member (30; 50; 90) that is able to locally close off said central duct without closing off the peripheral duct, said central duct (20b, 22b; 108b, 110b) of the concentric connecting duct (20, 22; 104, 106) forming an inlet orifice and an outlet orifice for discharging combustion products, said installation being characterized in that said central duct further forms an opening separate from the inlet and outlet orifices for allowing the insertion or the removal of the closing member (30; 50; 90).
A wound contacting member for negative pressure wound therapy (NPWT) selected to reduce pain upon removal from a wound , the wound contacting member comprising a network of strut elements separated by pores, wherein the wound contacting member comprises at least one attribute selected from the group consisting of at least 95% of the strut elements having a thickness of between 0.007 and 0.5 mm, and one or more strut element having a thickness of 0.23 mm or more, as measured by micro-computed tomography (micro-CT); characterised in that at least 90% of the pores separating the strut elements have a diameter of between 2.3 and 5.5 mm, and wherein the wound contacting member has a compressive strain at -120 mmHg of between about 50 and about 90 %. at least 95% of the strut elements having a thickness of between 0.007 and 0.5 mm, and one or more strut element having a thickness of 0.23 mm or more, as measured by micro-computed tomography (micro-CT); characterised in that at least 90% of the pores separating the strut elements have a diameter of between 2.3 and 5.5 mm, and wherein the wound contacting member has a compressive strain at -120 mmHg of between about 50 and about 90 %.