mhurhangee/patent-ind-claim-en huggingface dataset:
Retraction device having a housing , in which a driving element can be guided by means of two support elements between a stable parked position and an end position along at least one first guide rail section and a second guide rail section enclosing an obtuse angle (α) with the first, wherein the driving element has a third support element which, together with a driving-element guiding member which can be guided in the direction of the second guide rail section and which is loaded in the direction of the end position by means of a spring energy accumulator , forms a pivoting prismatic joint , wherein the third support element is positioned in a guide slot of the driving-element guiding member , characterized in that - the driving-element guiding member has at least one stop for limiting the pivoting of the driving element , which stop protrudes beyond the first support element on the side facing away from the second guide rail section , and - in that the pivoting prismatic joint has a sliding direction enclosing an acute angle with the direction of the first guide rail section , wherein the apex of said angle, with respect to the bearing pins , is located on the side facing away from the second guide rail section , and wherein the apex is thus located on the side of the horizontal axis connecting the centre points of the first two support elements , which faces away from the third support element . - the driving-element guiding member has at least one stop for limiting the pivoting of the driving element , which stop protrudes beyond the first support element on the side facing away from the second guide rail section , and - in that the pivoting prismatic joint has a sliding direction enclosing an acute angle with the direction of the first guide rail section , wherein the apex of said angle, with respect to the bearing pins , is located on the side facing away from the second guide rail section , and
A transportation refrigeration unit , the transportation refrigeration unit comprising: a condenser ; characterised in that the transport refrigeration unit further comprises: a fuel heat exchanger fluidly connected to the condenser, the fuel heat exchanger configured to receive refrigerant from the condenser; and a fuel decompression device located in a fuel line fluidly connecting a fuel tank and an engine , the fuel decompression device being in thermal communication with the fuel heat exchanger. a condenser ; characterised in that the transport refrigeration unit further comprises: a fuel heat exchanger fluidly connected to the condenser, the fuel heat exchanger configured to receive refrigerant from the condenser; and a fuel decompression device located in a fuel line fluidly connecting a fuel tank and an engine , the fuel decompression device being in thermal communication with the fuel heat exchanger. a fuel heat exchanger fluidly connected to the condenser, the fuel heat exchanger configured to receive refrigerant from the condenser; and a fuel decompression device located in a fuel line fluidly connecting a fuel tank and an engine , the fuel decompression device being in thermal communication with the fuel heat exchanger.
An apparatus comprising: a first sensor comprising a depth sensor ; one or more computer-readable storage media embodying instructions; and one or more processors configured to execute the instructions to: monitor , at least in part by output of the depth sensor, a physical environment comprising a user-defined interactive region for a predetermined event; detect , at least in part by the output of the depth sensor, the predetermined event in the interactive region; and in response to detection of the predetermined event, initiate a predetermined action associated with the predetermined event, wherein: the predetermined event comprises a plurality of event conditions, characterised in that the apparatus comprises a second sensor for detecting an environmental condition and in that the plurality of event conditions includes an event determined from the output of the second sensor used for detecting an environmental condition. a first sensor comprising a depth sensor ; one or more computer-readable storage media embodying instructions; and one or more processors configured to execute the instructions to: monitor , at least in part by output of the depth sensor, a physical environment comprising a user-defined interactive region for a predetermined event; detect , at least in part by the output of the depth sensor, the predetermined event in the interactive region; and in response to detection of the predetermined event, initiate a predetermined action associated with the predetermined event, wherein: the predetermined event comprises a plurality of event conditions, characterised in that the apparatus comprises a second sensor for detecting an environmental condition and in that the plurality of event conditions includes an event determined from the output of the second sensor used for detecting an environmental condition. monitor , at least in part by output of the depth sensor, a physical environment comprising a user-defined interactive region for a predetermined event; detect , at least in part by the output of the depth sensor, the predetermined event in the interactive region; and in response to detection of the predetermined event, initiate a predetermined action associated with the predetermined event, wherein: the predetermined event comprises a plurality of event conditions, characterised in that the apparatus comprises a second sensor for detecting an environmental condition and in that the plurality of event conditions includes an event determined from the output of the second sensor used for detecting an environmental condition. the predetermined event comprises a plurality of event conditions, characterised in that the apparatus comprises a second sensor for detecting an environmental condition and in that the plurality of event conditions includes an event determined from the output of the second sensor used for detecting an environmental condition.
An air distribution mechanism, comprising a cover , an air distribution valve comprising an air distribution side flow path and a rotary valve comprising a switching side flow path, the air distribution valve is fixedly mounted in a mounting chamber of the cover , and the rotary valve is rotatable around a principal rotation axis O of the rotary valve relative to the air distribution valve to switch connection states of the air distribution side flow path of the air distribution valve and the switching side flow path of the rotary valve ; wherein the air distribution valve comprises an air distribution valve main body and an air distribution valve seat that are fixedly connected and that are dismountable, an air distribution plane (6a3) that is on the air distribution valve main body and faces away from the air distribution valve seat protrudes relative to the air distribution valve seat , the air distribution plane (6a3) is tightly attached to a switching plane on the rotary valve , and the switching plane protrudes from the rotary valve ; the air distribution valve main body and the air distribution valve seat are eccentrically and fixedly connected together by an intra-valve positioning pin , the air distribution valve main body is provided with a main body pin hole (6a5) into which one end of the intra-valve positioning pin is inserted, and the air distribution valve seat is provided with a valve seat pin hole (6b5) into which the other end of the intra-valve positioning pin is inserted; and material hardness of the air distribution valve main body is lower than material hardness of the rotary valve .
A data storage system comprising: a recirculating loop configured to maintain a signal carrying data in motion and including a waveguide and a waveguide coupler (101, 101-i, 54-i, 61, 62); the waveguide coupler (101, 101-i, 54-i, 61, 62) configured to couple the signal carrying the data into the waveguide ; a signal conditioner (102, 102-i) configured to condition the signal conveyed through the waveguide by amplifying and regenerating the signal, wherein the signal conditioner (102, 102-i) is a signal amplifier configured to amplify at least some of this signal and a signal regenerator (102, 102-i) configured to regenerate, at a first timing, only a first portion of the signal, the first portion of the signal being less than an entirety of the signal, and to regenerate, at a second timing after the first timing, only a second portion of the signal, the second portion of the signal being less than an entirety of the signal. a recirculating loop configured to maintain a signal carrying data in motion and including a waveguide and a waveguide coupler (101, 101-i, 54-i, 61, 62); the waveguide coupler (101, 101-i, 54-i, 61, 62) configured to couple the signal carrying the data into the waveguide ; a signal conditioner (102, 102-i) configured to condition the signal conveyed through the waveguide by amplifying and regenerating the signal, wherein the signal conditioner (102, 102-i) is a signal amplifier configured to amplify at least some of this signal and a signal regenerator (102, 102-i) configured to regenerate, at a first timing, only a first portion of the signal, the first portion of the signal being less than an entirety of the signal, and to regenerate, at a second timing after the first timing, only a second portion of the signal, the second portion of the signal being less than an entirety of the signal.
A rodent, comprising a replacement of a genomic fragment of a rodent IL-4 gene at an endogenous rodent IL-4 locus with a genomic fragment of a human IL-4 gene to form a modified IL-4 gene, wherein the modified IL-4 gene encodes a human IL-4 protein and comprises exon 1 starting from the ATG initiation codon through exon 4 of the human IL-4 gene, wherein expression of the modified IL-4 gene is under control of rodent regulatory elements at the endogenous rodent IL-4 locus.
Method for near-contour surface temperature control of shell-shaped moulds with mould rim zones , wherein the temperature control of the mould on a near-contour temperature control surface with adjacent, web-like or wall-like separated subareas (4.i) is effected from the respective rear space of the mould rim zones of the mould and/or the respective mould rim zone of the mould and the shell-shaped moulds are designed in two or more parts with the respective mould rim zones , characterised in that the temperature control as cooling in the form of temperature control on the temperature control surface is locally different in subareas (4.i) the temperature control surface is effected in accordance with the temperature ranges of convection, bubble evaporation, partial and/or stable film evaporation of the liquid cooling fluid water, wherein the temperature control of the temperature control surface and/or the temperature distribution in the individual subareas (4.i) of the temperature control surface is controlled by means of different temperature control regimes of the subareas (4.i) of the temperature control surface and wherein the temperature control takes place in a rear space open towards the surrounding atmosphere.
Device for holding a fibrous web or a web start and/or web end of a fibrous web , in particular a paper, board or tissue web, having at least two holding elements which are located opposite the fibrous web and run transversely with respect to the web running direction and of which at least one in each case can be moved perpendicularly with respect to the fibrous web by means of an actuator , characterized in that at least one of the opposite holding elements has at least one controllable pressure body which is supported on the holding element and is directed onto the fibrous web , and the opposite holding elements have magnetic force elements which pull these holding elements together.
An aerosol-generating device comprising: an aerosolizer to generate aerosol from an aerosol-generating substrate ; a MEMS sound generator comprising an array of pressure-generating drivers configured to use digital sound reconstruction (DSR) to use a summation of discrete pulses to produce sound; and a controller operatively coupled to initiate the MEMS sound generator into producing sound. an aerosolizer to generate aerosol from an aerosol-generating substrate ; a MEMS sound generator comprising an array of pressure-generating drivers configured to use digital sound reconstruction (DSR) to use a summation of discrete pulses to produce sound; and a controller operatively coupled to initiate the MEMS sound generator into producing sound.
Arrangement for injecting liquid plastic material into an injection mould of a plastics injection-moulding machine comprising a clamping plate , on which there is arranged a plurality of needle valve nozzles , which are hydraulically actuatable by respective actuation units and which are actuatable for injection of liquid plastic material, guided in a hot runner distributor , into the injection mould , in each case via associated valves , wherein the feed lines of the valves are connected via a common feed collection line (P) to a pressurised fluid source and the return lines of the valves are connected via a common return collection line (T) to a storage vessel for the pressurised fluid, and the common feed collection line (P) and return collection line (T) contains a number of hydraulic transfer blocks corresponding to the number of actuation units , which transfer blocks are connected to one another in each case via feed and return collection line portions extending between the transfer blocks , characterised in that the hot runner distributor is arranged in a cavity between the clamping plate and a mould plate supporting the injection mould , and in that the hydraulic transfer blocks are positioned between the mould plate and the hot runner distributor , and the actuation units are positioned between the hot runner distributor and the clamping plate , or in that the hot runner distributor is arranged in a cavity between the clamping plate and a mould plate supporting the injection mould , and in that the hydraulic transfer blocks together with the valves and the actuation units are arranged in a gap between the hot runner distributor and the mould plate .
A functionalized substrate comprising a substrate and a near infrared absorbing coating having a ratio between the light transmittance and energy transmittance of at least 1.05 on said substrate , wherein said near infrared absorbing coating comprises near infrared absorbing nanoparticles comprising indium, tin, zinc, antimony, aluminum, tungsten or mixtures thereof; and said near infrared absorbing coating comprise at least one of the following near infrared absorbing structures: near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer and an inorganic overlayer directly on said near infrared absorbing nanoparticle layer; an inorganic underlayer , near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer directly on said inorganic underlayer , and an overlayer directly on said near infrared absorbing nanoparticle layer; near infrared absorbing nanoparticles dispersed within an inorganic encapsulating layer ; and near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer. said near infrared absorbing coating comprises near infrared absorbing nanoparticles comprising indium, tin, zinc, antimony, aluminum, tungsten or mixtures thereof; and said near infrared absorbing coating comprise at least one of the following near infrared absorbing structures: near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer and an inorganic overlayer directly on said near infrared absorbing nanoparticle layer; an inorganic underlayer , near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer directly on said inorganic underlayer , and an overlayer directly on said near infrared absorbing nanoparticle layer; near infrared absorbing nanoparticles dispersed within an inorganic encapsulating layer ; and near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer. near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer and an inorganic overlayer directly on said near infrared absorbing nanoparticle layer; an inorganic underlayer , near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer directly on said inorganic underlayer , and an overlayer directly on said near infrared absorbing nanoparticle layer; near infrared absorbing nanoparticles dispersed within an inorganic encapsulating layer ; and near infrared absorbing nanoparticles forming a near infrared absorbing nanoparticle layer.
Method for producing a filament of adhesive from a pressure sensitive adhesive, with the steps of: a) providing the pressure sensitive adhesive, b) shaping the pressure sensitive adhesive into a strand of material, the material strand being shaped from the pressure sensitive adhesive by an extrusion process, c) applying a passivating layer on the surface of the material strand , where in step c) the passivating layer is applied on the surface of the material strand by a coextrusion process. a) providing the pressure sensitive adhesive, b) shaping the pressure sensitive adhesive into a strand of material, the material strand being shaped from the pressure sensitive adhesive by an extrusion process, c) applying a passivating layer on the surface of the material strand ,
An image recording device provided with a fixed part for at least partial inclusion in and/or on the body of a motor vehicle, and a movable part which contains at least one optical element, the optical element comprising at least one optical sensor and/or a lens unit , and an adjustment device, provided with a power source , for adjusting the movable part between a first position and a second position, wherein during use in the first position the movable part is wholly or partly included in the body, and in the second position the movable part extends at an angle with respect to the body, such that at least the optical element carried by the movable part extends at least partly outside the body, wherein the movable part pivots from the second position about a axis to the first position and vice versa characterized in that : - between the fixed part and the movable part a driving part is provided which is releasably connected with the fixed part, such that in released condition it can move along with the moving part ; and/or - wherein the movable part is movable between the first position and the second position with the aid of the power source , in particular a motor and a first drive, wherein the movable part , viewed from the first position, is movable beyond the second position to a third position by an external force exerted on the movable part , wherein the first position defines a fold-in position, the second position a fold-out position and the third position a fold-over position; - wherein the axis about which the movable part pivots from the second position is a substantial vertical axis. - between the fixed part and the movable part a driving part is provided which is releasably connected with the fixed part, such that in released condition it can move along with the moving part ; and/or - wherein the movable part is movable between the first position and the second position with the aid of the power source , in particular a motor and a first drive, wherein the movable part , viewed from the first position, is movable beyond the second position to a third position by an external force exerted on the movable part , wherein the first position defines a fold-in position, the second position a fold-out position and the third position a fold-over position; - wherein the axis about which the movable part pivots from the second position is a substantial vertical axis.
A computer program product having a non-transitory computer-readable medium including computer program logic encoded thereon that, when performed on a surround sound audio system (10;40;70) that is configured to render left front, right front, and center front audio signals, and also render left and right near-field binaurally-encoded audio signals, causes the surround sound audio system to: develop the left and right near-field binaurally-encoded audio signals; provide the left near-field binaurally-encoded audio signal to a left non-occluding near-field driver (18;44) and provide the right near-field binaurally-encoded audio signal to a right non-occluding near-field driver (20;44), wherein the surround sound audio system further comprises a soundbar (42;80) comprising at least two distinct drivers (12;14;16;86;88), and wherein the computer program product further causes the surround sound audio system to provide the left and right near-field binaurally-encoded audio signals to at least one of the at least two distinct drivers of the soundbar. develop the left and right near-field binaurally-encoded audio signals; provide the left near-field binaurally-encoded audio signal to a left non-occluding near-field driver (18;44) and provide the right near-field binaurally-encoded audio signal to a right non-occluding near-field driver (20;44), wherein the surround sound audio system further comprises a soundbar (42;80) comprising at least two distinct drivers (12;14;16;86;88), and wherein the computer program product further causes the surround sound audio system to provide the left and right near-field binaurally-encoded audio signals to at least one of the at least two distinct drivers of the soundbar.