mhurhangee/patent-ind-claim-en huggingface dataset:
Optical module for a lighting and/or signaling device of a motor vehicle, in particular a headlight, comprising: - a support , - a light source comprising in particular at least one LED, - a reflector designed to reflect the light coming from the light source, - a bending element placed on the path of light coming from the reflector and designed to reflect light coming from the reflector, this bending element being attached in the module in an immovable manner relative to the light source, this bending element being produced on a metal part, wherein the bending element has a cut-off edge to produce a cut-off in the beam, the bending element being formed on a monolithic part of metal and comprising front and rear edges that are substantially parallel and substantially rectilinear, the reflective surface or surfaces of the bending element extending between these edges, which are perpendicular to the optical axis of the module, characterized in that the bending element is provided with lower and upper reflective surfaces being connected so as to form a bevel having an acute angle, the bending element comprising at least one fastening lug, designed to allow it to be attached to the support , the bending element comprising two fastening lugs at the opposed ends of the bending element . - a support , - a light source comprising in particular at least one LED, - a reflector designed to reflect the light coming from the light source, - a bending element placed on the path of light coming from the reflector and designed to reflect light coming from the reflector, this bending element being attached in the module in an immovable manner relative to the light source, this bending element being produced on a metal part, wherein the bending element has a cut-off edge to produce a cut-off in the beam, the bending element being formed on a monolithic part of metal and comprising front and rear edges that are substantially parallel and substantially rectilinear, the reflective surface or surfaces of the bending element extending between these edges, which are perpendicular to the optical axis of the module, characterized in that the bending element is provided with lower and upper reflective surfaces being connected so as to form a bevel having an acute angle, the bending element comprising at least one fastening lug, designed to allow it to be attached to the support , the bending element comprising two fastening lugs at the opposed ends of the bending element .
A use of a composition comprising: a. Fabric softening active; b. 0.01 to 4 wt.% hydrolysed protein to treat fabrics comprising synthetic fibres during the laundry process wherein the fabric comprising synthetic fibres comprises 90 wt.% to 100 wt.% polyester. a. Fabric softening active; b. 0.01 to 4 wt.% hydrolysed protein
Film for gas or vapor decontaminable packaging applications consisting of or comprising at least in sequence from outside to inside of the packaging a) a first layer of film being essentially impermeable for the decontaminating gas or vapor, having a first needling, perforation and/or cut pattern, b) an adhesive layer which can be activated by energy transmission, covering the entire surface of a layer underneath or being arranged in patterns, c) a layer of a selectively permeable non-woven being essentially impermeable for microorganisms defined as a microbial barrier measured according to ASTM F1608-16 of 2-6 Log Reduction Value (LRV) a) a first layer of film being essentially impermeable for the decontaminating gas or vapor, having a first needling, perforation and/or cut pattern, b) an adhesive layer which can be activated by energy transmission, covering the entire surface of a layer underneath or being arranged in patterns, c) a layer of a selectively permeable non-woven being essentially impermeable for microorganisms defined as a microbial barrier measured according to ASTM F1608-16 of 2-6 Log Reduction Value (LRV)
Method for checking the connection of a firing controller at an automatic firing device , wherein the firing controller is designed to generate a high voltage with the aid of a capacitor which can be charged by a power supply , wherein the firing controller can be connected with a firing electrode in a combustion chamber of a firing apparatus , and wherein the temporal course of a voltage (U) which builds up when the power supply is connected is observed continuously or at temporal intervals and permits conclusions regarding the quality of the connection of the firing controller .
A test device configured to control the function of a fire extinguishing system comprising fire extinguishing tubes and detectors configured to detect an UV and IR wavelengths spectrum generated by flames , the test device characterised in that it is configured to determine the time period in which the detectors and then the tubes are activated, the test device comprising: • an IR light source and/or an UV light source configured to radiate at different wavelengths that can be detected by sensors of the detectors to be tested, the wavelengths corresponding to a flame wavelength spectrum, • a shutter located in a front part of the light sources, configured to control the radiation of the light sources to the detectors by opening and closing, • a control unit configured to receive an alarm signal generated by the detectors by detecting the radiation, configured to determine the response time of activated fire extinguishing tubes as a result of the alarm signal, configured to calculate the time period for the fire extinguishing system to be activated depending on the alarm and fire extinguishing tubes times and configured to control the shutter , • a communication unit configured to perform data exchange among detector, fire extinguishing tube and control unit, • a triggering mechanism configured to activate/deactivate the control unit, placing the shutter to an open/close position. • an IR light source and/or an UV light source configured to radiate at different wavelengths that can be detected by sensors of the detectors to be tested, the wavelengths corresponding to a flame wavelength spectrum, • a shutter located in a front part of the light sources, configured to control the radiation of the light sources to the detectors by opening and closing, • a control unit configured to receive an alarm signal generated by the detectors by detecting the radiation, configured to determine the response time of activated fire extinguishing tubes as a result of the alarm signal, configured to calculate the time period for the fire extinguishing system to be activated depending on the alarm and fire extinguishing tubes times and configured to control the shutter , • a communication unit configured to perform data exchange among detector, fire extinguishing tube and control unit, • a triggering mechanism configured to activate/deactivate the control unit, placing the shutter to an open/close position.
An electronic device comprising: a memory configured to store at least one instruction associated with a universal serial bus (USB) communication function or a wireless communication function operation; and at least one processor connected to the memory ; characterized in that , when a request for execution of the wireless communication function is received during execution of the USB communication function, the at least one processor is configured to: determine a type of the USB communication function; and deactivate the execution of USB communication function according to the determined type of the USB communication function and execute the wireless communication function or maintain the execution of the USB communication function according to the determined type of the USB communication function while the wireless communication function is executed. a memory configured to store at least one instruction associated with a universal serial bus (USB) communication function or a wireless communication function operation; and at least one processor connected to the memory ; characterized in that , when a request for execution of the wireless communication function is received during execution of the USB communication function, the at least one processor is configured to: determine a type of the USB communication function; and deactivate the execution of USB communication function according to the determined type of the USB communication function and execute the wireless communication function or maintain the execution of the USB communication function according to the determined type of the USB communication function while the wireless communication function is executed. determine a type of the USB communication function; and deactivate the execution of USB communication function according to the determined type of the USB communication function and execute the wireless communication function or maintain the execution of the USB communication function according to the determined type of the USB communication function while the wireless communication function is executed.
An air cleaner having a filter , for causing air from an image forming device to pass through the filter and discharging the filtered air, the air cleaner comprising: an air duct having an inlet via which air from the image forming device is to be received and an outlet facing a first part of a main surface of the filter and via which the received air is output in a direction towards the first part of the main surface; a fan disposed for causing air from the image forming device to be received by the air duct via the inlet , to be output from the air duct via the outlet , and to pass through the filter ; and a flow distributer disposed between the outlet and the filter such that the flow distributer changes a direction of flow of air output from the air duct from the direction towards the first part of the main surface to a direction towards a second part of the main surface of the filter , the second part being a part of the main surface that does not face the outlet , characterized in that the flow distributer has a conical shape protruding towards the outlet . an air duct having an inlet via which air from the image forming device is to be received and an outlet facing a first part of a main surface of the filter and via which the received air is output in a direction towards the first part of the main surface; a fan disposed for causing air from the image forming device to be received by the air duct via the inlet , to be output from the air duct via the outlet , and to pass through the filter ; and a flow distributer disposed between the outlet and the filter such that the flow distributer changes a direction of flow of air output from the air duct from the direction towards the first part of the main surface to a direction towards a second part of the main surface of the filter , the second part being a part of the main surface that does not face the outlet , characterized in that the flow distributer has a conical shape protruding towards the outlet .
A polarization separation device intended to receive an incident light beam , the device comprising a first geometric-phase lens (L 1 ), having a first optical center (O 1 ), a first optical axis (Z 1 ) and a positive first focal length (F 1 ) for a first circular polarization state and an opposite focal length (-F 1 ) for another circular polarization state orthogonal to the first circular polarization state, and a second geometric-phase lens (L 2 ), having a second optical center (O 2 ), a second optical axis (Z 2 ) and a positive second focal length (F 2 ) for the first circular polarization state and an opposite focal length (-F 2 ) for the other circular polarization state, the first optical axis (Z 1 ) and the second optical axis (Z 2 ) forming an angle smaller than a few degrees, the first and second geometric-phase lenses being separated from one another by a first distance (D) according to the first optical axis (Z 1 ), the device being configured and directed so that a projection (P 1 ) of the first optical center (O 1 ) according to the first optical axis (Z 1 ) on the second geometric-phase optical lens (L 2 ) is located at a non-zero second distance (e) from the second optical center (O 2 ), said first distance (D) being smaller than said first focal length (F 1 ) and said second focal length (F 2 ).
A refrigerator comprising: a cabinet having a storage compartment therein, the storage compartment being provided in a front surface thereof with an opening; a door hinged to the cabinet for opening and closing at least a portion of the opening; a drawer (D1, D2, D3) disposed in the storage compartment for storing goods; and a pair of drawer guides disposed at opposite side surfaces of the storage compartment (S) for supporting the drawer and guiding the drawer so as to be movable in a forward-rearward direction; a withdrawal mechanism comprising a base part disposed at a lower side of the drawer (D3), the base part being configured to be moved forward when the door is opened and to be moved rearward when the door is closed, a rear frame extending upward from the base part toward a rear of the drawer for pushing the drawer forward when the base part is moved forward, and a pair of arms extending forward from the rear frame ; and a pair of arm guides for guiding the pair of arms so as to be movable in the forward-rearward direction, wherein the pair of drawer guides is disposed at opposite side surfaces of the storage compartment, the pair of arms is disposed between the drawer and the opposite side surfaces of the storage compartment, and the pair of arm guides is disposed at the opposite side surfaces of the storage compartment. a cabinet having a storage compartment therein, the storage compartment being provided in a front surface thereof with an opening; a door hinged to the cabinet for opening and closing at least a portion of the opening; a drawer (D1, D2, D3) disposed in the storage compartment for storing goods; and a pair of drawer guides disposed at opposite side surfaces of the storage compartment (S) for supporting the drawer and guiding the drawer so as to be movable in a forward-rearward direction; a withdrawal mechanism comprising a base part disposed at a lower side of the drawer (D3), the base part being configured to be moved forward when the door is opened and to be moved rearward when the door is closed, a rear frame extending upward from the base part toward a rear of the drawer for pushing the drawer forward when the base part is moved forward, and a pair of arms extending forward from the rear frame ; and a pair of arm guides for guiding the pair of arms so as to be movable in the forward-rearward direction, wherein the pair of drawer guides is disposed at opposite side surfaces of the storage compartment, the pair of arms is disposed between the drawer and the opposite side surfaces of the storage compartment, and the pair of arm guides is disposed at the opposite side surfaces of the storage compartment.
A method performed at a tenant growth prediction system , comprising: identifying a plurality of cluster features for a node cluster (108; 208; 402) based on utilization data for the node cluster, wherein the node cluster comprises a grouping of server nodes on a cloud computing system ; determining a deployment growth classification for the node cluster based on the identified plurality of cluster features, the deployment growth classification comprising a classification for predicted growth of an existing set of deployments on the node cluster; and providing the deployment growth classification to a resource management system on the node cluster for use in determining whether to permit or deny a received deployment request based on the deployment growth classification and a cluster configuration for the node cluster, wherein the cluster configuration includes one or more policies associated with whether to permit or deny incoming deployment requests on the node cluster. identifying a plurality of cluster features for a node cluster (108; 208; 402) based on utilization data for the node cluster, wherein the node cluster comprises a grouping of server nodes on a cloud computing system ; determining a deployment growth classification for the node cluster based on the identified plurality of cluster features, the deployment growth classification comprising a classification for predicted growth of an existing set of deployments on the node cluster; and providing the deployment growth classification to a resource management system on the node cluster for use in determining whether to permit or deny a received deployment request based on the deployment growth classification and a cluster configuration for the node cluster, wherein the cluster configuration includes one or more policies associated with whether to permit or deny incoming deployment requests on the node cluster.
A membrane electrode assembly configured for CO x reduction comprising: • a cathode layer comprising a reduction catalyst and a first anion-conducting polymer; • an anode layer comprising an oxidation catalyst and a first cation-conducting polymer; • a membrane layer comprising a second cation-conducting polymer, the membrane layer arranged between the cathode layer and the anode layer, the membrane conductively connecting the cathode layer and the anode layer; and • a cathode buffer layer having a first porosity between about 0.01 and 95 percent by volume, the cathode buffer layer comprising a second anion-conducting polymer, wherein the cathode buffer layer is arranged between the cathode layer and the membrane layer and conductively connects the cathode layer and the membrane layer. • a cathode layer comprising a reduction catalyst and a first anion-conducting polymer; • an anode layer comprising an oxidation catalyst and a first cation-conducting polymer; • a membrane layer comprising a second cation-conducting polymer, the membrane layer arranged between the cathode layer and the anode layer, the membrane conductively connecting the cathode layer and the anode layer; and • a cathode buffer layer having a first porosity between about 0.01 and 95 percent by volume, the cathode buffer layer comprising a second anion-conducting polymer, wherein the cathode buffer layer is arranged between the cathode layer and the membrane layer and conductively connects the cathode layer and the membrane layer.
A channel element (20; 90) comprising: a support portion (21; 91a; 91b) for at least one cable and a guiding portion (22; 92) covering the support portion (21; 91a; 91b) and configured integral with the support portion (21; 91a, 91b) to guide the at least one cable to the support portion (21; 91a, 91b) when the channel element (20; 90) rotates around its longitudinal axis, wherein between the guiding portion (22; 92) and the support portion (21; 91a, 91b) an insertion opening (23; 93) for inserting the at least one cable into the channel element (20; 90) is formed, which extends along a length of the channel element (20; 90) and is limited by the guiding portion (22; 92) and the support portion (21; 91a, 91b), characterized in that the channel element further comprises an anchoring portion arranged above the insertion opening (23; 93) or a plurality of anchoring portions arranged above the insertion opening (23; 93), through each of which an anchoring element can be guided. a support portion (21; 91a; 91b) for at least one cable and a guiding portion (22; 92) covering the support portion (21; 91a; 91b) and configured integral with the support portion (21; 91a, 91b) to guide the at least one cable to the support portion (21; 91a, 91b) when the channel element (20; 90) rotates around its longitudinal axis, wherein between the guiding portion (22; 92) and the support portion (21; 91a, 91b) an insertion opening (23; 93) for inserting the at least one cable into the channel element (20; 90) is formed, which extends along a length of the channel element (20; 90) and is limited by the guiding portion (22; 92) and the support portion (21; 91a, 91b), characterized in that the channel element further comprises an anchoring portion arranged above the insertion opening (23; 93) or a plurality of anchoring portions arranged above the insertion opening (23; 93), through each of which an anchoring element can be guided.
A method for a wireless transmitter, wherein the method is characterized by transmitting a signal over a frequency range during a time interval by: transmitting a first signal part over a first frequency interval within the frequency range during the time interval, wherein the first signal part has a first autocorrelation value; and transmitting a second signal part over a second frequency interval within the frequency range during the time interval, wherein the first and second frequency intervals are non-overlapping, and wherein the second signal part is specifically constructed to provide a second autocorrelation value of the signal comprising the first and second signal parts which is lower than the first autocorrelation value, wherein the second signal part has an exclusive purpose to provide the second autocorrelation value, and wherein the first signal part is a wake-up signal, WUS. transmitting a first signal part over a first frequency interval within the frequency range during the time interval, wherein the first signal part has a first autocorrelation value; and transmitting a second signal part over a second frequency interval within the frequency range during the time interval, wherein the first and second frequency intervals are non-overlapping, and wherein the second signal part is specifically constructed to provide a second autocorrelation value of the signal comprising the first and second signal parts which is lower than the first autocorrelation value, wherein the second signal part has an exclusive purpose to provide the second autocorrelation value, and wherein the first signal part is a wake-up signal, WUS.
Multiple-hearth furnace , intended to thermally treat a charge of material M, comprising: - an enclosure of central axis (Z) comprising: a top opening aperture , intended to be supplied with the charge of material to be treated, a bottom opening aperture , through which the treated charge of material is intended to be discharged, - a shaft mounted to rotate about the central axis (Z) inside the enclosure, - a plurality of hearths fixed inside the enclosure parallel to one another, the hearths each comprising one or more opening apertures suitable for transferring rabbled material M to the hearth arranged immediately below, - at least one rabbling arm fixed to the rotary shaft, above each hearth and comprising rabbling teeth fixed at right angles to the arm, the rabbling arm or arms being incurved, the rabbling teeth of each arm being arranged such that the leading angle with respect to the material M to be treated is identical for all the teeth. - an enclosure of central axis (Z) comprising: a top opening aperture , intended to be supplied with the charge of material to be treated, a bottom opening aperture , through which the treated charge of material is intended to be discharged, a top opening aperture , intended to be supplied with the charge of material to be treated, a bottom opening aperture , through which the treated charge of material is intended to be discharged, - a shaft mounted to rotate about the central axis (Z) inside the enclosure, - a plurality of hearths fixed inside the enclosure parallel to one another, the hearths each comprising one or more opening apertures suitable for transferring rabbled material M to the hearth arranged immediately below, - at least one rabbling arm fixed to the rotary shaft, above each hearth and comprising rabbling teeth fixed at right angles to the arm, the rabbling arm or arms being incurved, the rabbling teeth of each arm being arranged such that the leading angle with respect to the material M to be treated is identical for all the teeth.