mhurhangee/patent-ind-claim-en huggingface dataset:
An electromagnetic radiation detection device comprising: at least one row of photoresistors , each photoresistor comprising an active portion comprising organic semiconductor materials; emitters of the electromagnetic radiation and a waveguide comprising at least one surface intended to be in contact with at least one object, the photoresistors being distributed along an edge of said surface, characterized in that the emitters are distributed along said edge and arranged alternatively with the photoresistors. at least one row of photoresistors , each photoresistor comprising an active portion comprising organic semiconductor materials; emitters of the electromagnetic radiation and a waveguide comprising at least one surface intended to be in contact with at least one object, the photoresistors being distributed along an edge of said surface, characterized in that the emitters are distributed along said edge and arranged alternatively with the photoresistors.
A method performed by a radio access node for decoding user data from a first communication device and a second communication device in a wireless communication network , comprising - receiving a first user data stream in a first time slot from the first communication device , a second user data stream in a second time slot from the second communication device , and characterized by further receiving a network coded first user data stream in a third time slot from a first relay node and a network coded second user data stream in the third time slot from a second relay node , wherein the network coded first user data stream and the network coded second user data stream are network coded separately and orthogonal relative one another in a time division manner in the third time slot; and - decoding the first user data stream from the first and third time slot, and the second user data stream from the second and the third time slot, separately. - receiving a first user data stream in a first time slot from the first communication device , a second user data stream in a second time slot from the second communication device , and characterized by further receiving a network coded first user data stream in a third time slot from a first relay node and a network coded second user data stream in the third time slot from a second relay node , wherein the network coded first user data stream and the network coded second user data stream are network coded separately and orthogonal relative one another in a time division manner in the third time slot; and - decoding the first user data stream from the first and third time slot, and the second user data stream from the second and the third time slot, separately.
An antibody or antigen-binding fragment thereof that specifically binds to semaphorin-4D (SEMA4D) for use in inhibiting, delaying, or reducing solid tumor growth in a subject with cancer, in combination with at least one other immune modulating therapy, wherein the anti-SEMA4D antibody or fragment thereof comprises (a) a VH comprising VHCDRs 1-3 comprising SEQ ID NOS: 6, 7, and 8, respectively, and a VL comprising VLCDRs 1-3 comprising SEQ ID NOS: 14, 15, and 16, respectively; or (b) a VH and VL comprising, respectively, SEQ ID NO: 9 and SEQ ID NO: 17, or SEQ ID NO: 10 and SEQ ID NO: 18; wherein the at least one other immune modulating therapy comprises i) an immune checkpoint blockade inhibitor that can block a receptor-ligand interaction initiating an immune checkpoint, wherein the immune checkpoint blockade inhibitor comprises an antibody or antigen-binding fragment thereof that binds to the receptor or ligand; or ii) a Treg modulator comprising cyclophosphamide; and wherein the combination with the at least one other immune modulating therapy results in enhanced therapeutic efficacy relative to either the antibody or fragment thereof or the immune modulating therapy alone. (a) a VH comprising VHCDRs 1-3 comprising SEQ ID NOS: 6, 7, and 8, respectively, and a VL comprising VLCDRs 1-3 comprising SEQ ID NOS: 14, 15, and 16, respectively; or (b) a VH and VL comprising, respectively, SEQ ID NO: 9 and SEQ ID NO: 17, or SEQ ID NO: 10 and SEQ ID NO: 18; i) an immune checkpoint blockade inhibitor that can block a receptor-ligand interaction initiating an immune checkpoint, wherein the immune checkpoint blockade inhibitor comprises an antibody or antigen-binding fragment thereof that binds to the receptor or ligand; or ii) a Treg modulator comprising cyclophosphamide;
Incineration plant having - a combustion chamber , - a combustion material inlet through which solid material can be introduced into the combustion chamber , - a combustion grate with which the solid material and combusted solid material can be conveyed through the combustion chamber , - a primary air supply below the top of the combustion grate , - at least one nozzle arranged above the combustion grate with which secondary air and/or an oxygen poor carrier gas can be provided, the nozzle having a gas inlet and a gas outlet , characterized in that a helically shaped guiding element is arranged in the nozzle between the gas inlet and the gas outlet for impinging a swirl to the gas, the helically shaped guiding element having a front edge and a back edge , wherein the front edge and the back edge are displaced with a distance to each other in a longitudinal direction of the nozzle . - a combustion chamber , - a combustion material inlet through which solid material can be introduced into the combustion chamber , - a combustion grate with which the solid material and combusted solid material can be conveyed through the combustion chamber , - a primary air supply below the top of the combustion grate , - at least one nozzle arranged above the combustion grate with which secondary air and/or an oxygen poor carrier gas can be provided, the nozzle having a gas inlet and a gas outlet ,
Nail setting device, comprising an electrodynamic drive, in particular a highly dynamic electrodynamic drive, in particular constructed in the manner of a Thomson coil with soft-magnetic frame, wherein the electrodynamic drive comprises: - a first excitation coil , and - a short-circuit rotor mounted movably along an axis, characterized in that the electrodynamic drive comprises a soft-magnetic frame , wherein the frame has a saturation flux density of at least 1.0 T and/or an effective specific electrical conductivity of not more than 10 6 S/m. - a first excitation coil , and - a short-circuit rotor mounted movably along an axis,
An oral care composition comprising a silica abrasive, non-ionic surfactant comprising a polyethylene glycol ethers of fatty alcohols and a poly(ethylene oxide) polymer having a molecular weight (Mn) 300,000 or greater.
A fluid warming system comprising a heater unit and a removable heat exchanger unit , the heater unit being operable conductively to heat the removable heat exchanger unit via a heat transfer surface of the heat exchanger unit, the heat exchanger unit including an inlet and outlet for attaching fluid lines for transporting a fluid through the heat exchanger unit for heating, and the heater unit comprising: a body portion including a fixed first part , for receiving the heat exchanger unit , and a slideably extendible second part which surrounds most of the length of the first part and locks the heat exchanger unit in place when in use; a flexible heating element which, in use, makes thermal contact with the heat transfer surface of the heat exchanger unit; a compressible portion disposed on the distal side of the flexible heating element relative to the heat exchanger unit when received; and a biasing arrangement operable, in use, to distribute a transverse compression force across the arrangement formed from the compressible portion , the heating element and the heat exchanger unit , whereby the compression force causes the heating element to be urged towards the heat transfer surface of the heat exchanger unit and the compressible portion, in conjunction with the compression force, causes the heating element to conform more closely to the shape of the heat transfer surface. a body portion including a fixed first part , for receiving the heat exchanger unit , and a slideably extendible second part which surrounds most of the length of the first part and locks the heat exchanger unit in place when in use; a flexible heating element which, in use, makes thermal contact with the heat transfer surface of the heat exchanger unit; a compressible portion disposed on the distal side of the flexible heating element relative to the heat exchanger unit when received; and a biasing arrangement operable, in use, to distribute a transverse compression force across the arrangement formed from the compressible portion , the heating element and the heat exchanger unit , whereby the compression force causes the heating element to be urged towards the heat transfer surface of the heat exchanger unit and the compressible portion, in conjunction with the compression force, causes the heating element to conform more closely to the shape of the heat transfer surface.
A land-based aquaculture facility for the production of aquatic animals with at least two water containers , of which at least one has an overflow device with a first partition screen that has a predefined mesh width , wherein a closed circular flow can be produced in the water containers by means of at least one pump via at least one supply line device into the water container with the overflow device and aquatic animals with a size smaller than the mesh width can be selected by means of the overflow device , characterized in that at least the second water container also has an overflow device , wherein each overflow device is arranged in the upper region of the respective water container and at least one central collecting container with an upper supply region and a lower discharge region is arranged between the at least two water containers , wherein the overflow devices of the at least two water containers lead into the upper supply region and the lower discharge region transforms into a discharge device , to which a water-permeable receiving container for the selected aquatic animals is connected, wherein said receiving container is arranged in a return flow tank , from which the pump pumps the water back into the water containers via a respective supply line device per water container , and wherein the supply line devices are arranged in such a way that a circular flow can be generated in the water containers , which have a conical design with a diameter that decreases from the upper region in the direction of the lower region .
A method for commanding the operation of a motorised drive device , the motorised drive device comprising at least: - an electrical energy supply device , - an electromechanical actuator , and - a command unit , the electrical energy supply device comprising at least: - a battery , and - an electrical energy source , the electrical energy source being configured to charge the battery , the electromechanical actuator comprising at least: - an electric motor , the electric motor comprising a plurality of windings , - an output shaft , and - an electronic control unit , the method comprising at least: - a first step (E10) of determining a value (VF1) of a first physical quantity representative of the operation of the motorised driving device , and - a first step (E20) of comparing the value of the first physical quantity with a first predetermined threshold value (SV1), characterised in that the method comprises, as a function of the result of the first comparison step (E20), a load-shedding step (E30) in which the windings of the electric motor are supplied with electrical energy from the battery , while keeping the output shaft stationary, if the value of the first physical quantity is greater than or equal to the first predetermined threshold value and if no command order is received by the electronic control unit from the command unit . - an electrical energy supply device , - an electromechanical actuator , and - a command unit , - a battery , and - an electrical energy source , the electrical energy source being configured to charge the battery , - an electric motor , the electric motor comprising a plurality of windings , - an output shaft , and - an electronic control unit , - a first step (E10) of determining a value (VF1) of a first physical quantity representative of the operation of the motorised driving device , and - a first step (E20) of comparing the value of the first physical quantity with a first predetermined threshold value (SV1),
A time-series data processing device , comprising: a protruding data extracting unit for extracting, from time-series data which is a sequence of values obtained from sequential observation with elapse of time, protruding data including an ascending leg a value of which continuously rises with respect to time and a descending leg a value of which continuously drops with respect to time; an occurrence pattern defining unit for defining an occurrence pattern of successive two or more pieces of protruding data in the time-series data; and an occurrence pattern detecting unit for detecting two or more pieces of protruding data matching the occurrence pattern defined by the occurrence pattern defining unit, from among a set of pieces of protruding data extracted by the protruding data extracting unit. a protruding data extracting unit for extracting, from time-series data which is a sequence of values obtained from sequential observation with elapse of time, protruding data including an ascending leg a value of which continuously rises with respect to time and a descending leg a value of which continuously drops with respect to time; an occurrence pattern defining unit for defining an occurrence pattern of successive two or more pieces of protruding data in the time-series data; and an occurrence pattern detecting unit for detecting two or more pieces of protruding data matching the occurrence pattern defined by the occurrence pattern defining unit, from among a set of pieces of protruding data extracted by the protruding data extracting unit.
A machine to process panels of wood or the like comprising an elongated base , which extends in a first direction , has a support surface (P) for at least one panel , and defines a processing station for the panels ; an overhead crane , which extends above the base in a second direction that is transverse to the first direction , is mobile along the base in the first direction , and is provided with at least one operating head for cutting and/or drilling the panels ; a loading station to load the panels to be processed and a discharging station to discharge the panels that have just been processed, which are arranged on opposite sides of the processing station in the first direction ; the overhead crane comprising at least two holding and transporting members , which are distributed along the overhead crane in the second direction so as to transfer the panels to be processed from the loading station to the processing station , and at least one pushing member to transfer the panels that have just been processed from the processing station to the discharging station ; wherein each holding and transporting member is a clamp member comprising two jaws , which are mobile between a clamping position and a release position for at least one panel ; and characterized in that the loading station is provided with a first nearing device to move the panels in the first direction and with a second nearing device to move the panels in the second direction and in that each nearing device comprises a pushing member , which is configured to come into contact with a lateral edge of the panels to be transferred from the loading station to the processing station , and a copy attachment , which is configured to come into contact with a larger face of an upper panel .
A method for controlling operation of a steam iron, the steam iron including a steam generating unit for generating and ejecting steam, a controller for controlling operation of the steam generating unit, and a switch for activating the steam generating unit to eject steam, the method including the following steps: a) upon the switch being turned on, starting, by the controller , timing a first time period, and enabling, by the controller ,the steam generating unit to eject a first amount of steam per unit time until the first time period has elapsed; and b) after the first time period has elapsed, enabling, by the controller , the steam generating unit to eject a second amount of steam per unit time when the switch is turned on, the second amount of steam per unit time being less than the first amount of steam per unit time; characterized in that , in step a), when the switch is turned off within the first time period, the controller enables the steam generating unit to eject the first amount of steam per unit time when the switch is turned on again within the first time period until the first time period has elapsed. a) upon the switch being turned on, starting, by the controller , timing a first time period, and enabling, by the controller ,the steam generating unit to eject a first amount of steam per unit time until the first time period has elapsed; and b) after the first time period has elapsed, enabling, by the controller , the steam generating unit to eject a second amount of steam per unit time when the switch is turned on, the second amount of steam per unit time being less than the first amount of steam per unit time;
A torch handle assembly for a cutting torch, comprising: a torch handle body having an outer casing; and a rotatable collar secured to said outer casing of said torch handle body, the collar configured to be coupled to a connection structure of a robot, gantry or motion control structure, wherein the collar comprises a cylindrical structure with an inner diameter that is slightly larger than the outer diameter of the torch handle , wherein said outer casing has a first retaining structure positioned at an upstream end of said rotatable collar , and a second retaining structure positioned at a downstream end of said rotatable collar , characterized in that said torch handle can rotate relative to said rotatable collar , wherein no structure is positioned between an inner surface of said rotatable collar and an outer surface of said outer casing of said torch handle , and wherein each of said first and second retaining structures is comprised of a groove in the surface of said outer casing and a lock ring which is partially embedded in said groove such that said rotatable collar is positioned between said lock rings . a torch handle body having an outer casing; and a rotatable collar secured to said outer casing of said torch handle body, the collar configured to be coupled to a connection structure of a robot, gantry or motion control structure, wherein the collar comprises a cylindrical structure with an inner diameter that is slightly larger than the outer diameter of the torch handle , wherein said outer casing has a first retaining structure positioned at an upstream end of said rotatable collar , and a second retaining structure positioned at a downstream end of said rotatable collar , characterized in that said torch handle can rotate relative to said rotatable collar , wherein no structure is positioned between an inner surface of said rotatable collar and an outer surface of said outer casing of said torch handle , and wherein each of said first and second retaining structures is comprised of a groove in the surface of said outer casing and a lock ring which is partially embedded in said groove such that said rotatable collar is positioned between said lock rings .
A method for controlling a fan equipped lidless stove of a sauna , characterized by automatically: making a selection between an idle mode and a sauna bathing mode of the heating of the stove based on any one or more of the following: relative air humidity of the sauna ; sound measured from the sauna ; sound level measured from the sauna ; a measured load on benches of the sauna ; a motion sensing signal measured from the sauna ; receiving signals signifying movement from a motion sensor or an optical passage detector installed at a door; or the temperature of the stove ; and controlling the stove to heat the sauna in the idle mode; and controlling the stove to heat the sauna more in the sauna bathing mode than in the idle mode by controlling the fan. making a selection between an idle mode and a sauna bathing mode of the heating of the stove based on any one or more of the following: relative air humidity of the sauna ; sound measured from the sauna ; sound level measured from the sauna ; a measured load on benches of the sauna ; a motion sensing signal measured from the sauna ; receiving signals signifying movement from a motion sensor or an optical passage detector installed at a door; or the temperature of the stove ; and controlling the stove to heat the sauna in the idle mode; and controlling the stove to heat the sauna more in the sauna bathing mode than in the idle mode by controlling the fan.
A lighting device comprising: - at least one semiconductor layer ; - at least one light emission surface comprising an array of high luminance areas configured to emit light at a first local luminance level and low luminance areas configured to emit no light or to emit light at a second local luminance level lower than the first local luminance level; - a plurality of semiconductor light emitting devices formed in the semiconductor layer to define the plurality of high luminance areas ; - wherein the high luminance areas and the low luminance areas are arranged in accordance with a predefined light emission profile of the light emission surface ; - wherein a low luminance area of the low luminance areas corresponds to a portion of the semiconductor layer comprising an n-doped region and a p-doped region, wherein at least one of the n-doped region and the p-doped region is configured not to be electrically connected to a power source, and/or - wherein a low luminance area of the low luminance areas is configured to be electrically connected in parallel with a further low luminance area of the low luminance areas to a power source and wherein the high luminance areas are configured to be electrically connected in series to the power source. - at least one semiconductor layer ; - at least one light emission surface comprising an array of high luminance areas configured to emit light at a first local luminance level and low luminance areas configured to emit no light or to emit light at a second local luminance level lower than the first local luminance level; - a plurality of semiconductor light emitting devices formed in the semiconductor layer to define the plurality of high luminance areas ; - wherein the high luminance areas and the low luminance areas are arranged in accordance with a predefined light emission profile of the light emission surface ; - wherein a low luminance area of the low luminance areas corresponds to a portion of the semiconductor layer comprising an n-doped region and a p-doped region, wherein at least one of the n-doped region and the p-doped region is configured not to be electrically connected to a power source, and/or - wherein a low luminance area of the low luminance areas is configured to be electrically connected in parallel with a further low luminance area of the low luminance areas to a power source and wherein the high luminance areas are configured to be electrically connected in series to the power source.