mhurhangee/patent-ind-claim-en huggingface dataset:
Procedure for the fabrication of a metal tube-metal sleeve-metal body composite system (10/30/20) of a vibronic-type transducer, said procedure comprising: - The placing of a section of a metal tube in an interior channel of a metal sleeve , namely a sleeve having a metal wall surrounding the interior channel, in such a way that a lateral surface of the metal tube and an interior surface of the metal sleeve are at least partially in contact; - The fixing of the metal sleeve on the section of the metal tube placed in the sleeve's interior channel, to form a metal tube-metal sleeve composite system (10/30); - The placing of the metal tube-metal sleeve composite system (10/30) in the passage opening of a metal body in such a way that a lateral surface of the metal sleeve and an interior surface of the passage opening are at least partially in contact; and the plastic deformation at least of the metal sleeve of the metal tube-metal sleeve composite system placed in the passage opening to form a force-type connection between said interior surface of the passage opening and said lateral surface of the metal sleeve; - wherein the metal tube has a caliber-to-wall thickness ratio (dio/sio), defined by a ratio of a caliber (dio) of the metal tube to a wall thickness (sio) of the wall of said metal tube, which is greater than 20; and - wherein the wall of the metal sleeve has an initial thickness (s 30' ) that is greater than 1 mm and/or greater than the wall thickness (sio) of the wall of the metal tube. - The placing of a section of a metal tube in an interior channel of a metal sleeve , namely a sleeve having a metal wall surrounding the interior channel, in such a way that a lateral surface of the metal tube and an interior surface of the metal sleeve are at least partially in contact; - The fixing of the metal sleeve on the section of the metal tube placed in the sleeve's interior channel, to form a metal tube-metal sleeve composite system (10/30); - The placing of the metal tube-metal sleeve composite system (10/30) in the passage opening of a metal body in such a way that a lateral surface of the metal sleeve and an interior surface of the passage opening are at least partially in contact; and the plastic deformation at least of the metal sleeve of the metal tube-metal sleeve composite system placed in the passage opening to form a force-type connection between said interior surface of the passage opening and said lateral surface of the metal sleeve; - wherein the metal tube has a caliber-to-wall thickness ratio (dio/sio), defined by a ratio of a caliber (dio) of the metal tube to a wall thickness (sio) of the wall of said metal tube, which is greater than 20; and - wherein the wall of the metal sleeve has an initial thickness (s 30' ) that is greater than 1 mm and/or greater than the wall thickness (sio) of the wall of the metal tube.
A data transmission method, comprising: sending indication signaling, wherein the indication signaling is used to indicate data transmission of one transport block, wherein the indication signaling carries a status value, the status value is used to indicate a quantity of coding block groups comprised in the transport block, the status value is further used to indicate at least one coding block group comprised in the data transmission, the status value is represented by using a maximum of K+1 bits, and K is a maximum value of the quantity of coding block groups that can be comprised in the transport block; and sending the at least one coding block group, wherein the method is characterised in that the status value is determined based on the quantity of coding block groups comprised in the transport block and the at least one coding block group comprised in the data transmission, wherein the status value, the quantity of coding block groups comprised in the transport block, and a coding block group comprised in the data transmission meet the following relational expression: X = Y + 2 M − a M , wherein 0 ≤ a M ≤ 2 + M, 1 ≤ M ≤ K, a M is a constant and is an integer, X represents decimal notation of the status value, Y represents decimal notation of a location index value, the location index value is used to indicate a location of the at least one coding block group comprised in the data transmission in the transport block, and M represents the quantity of coding block groups comprised in the transport block. sending indication signaling, wherein the indication signaling is used to indicate data transmission of one transport block, wherein the indication signaling carries a status value, the status value is used to indicate a quantity of coding block groups comprised in the transport block, the status value is further used to indicate at least one coding block group comprised in the data transmission, the status value is represented by using a maximum of K+1 bits, and K is a maximum value of the quantity of coding block groups that can be comprised in the transport block; and sending the at least one coding block group, wherein the method is characterised in that the status value is determined based on the quantity of coding block groups comprised in the transport block and the at least one coding block group comprised in the data transmission, wherein the status value, the quantity of coding block groups comprised in the transport block, and a coding block group comprised in the data transmission meet the following relational expression: X = Y + 2 M − a M , wherein 0 ≤ a M ≤ 2 + M, 1 ≤ M ≤ K, a M is a constant and is an integer, X represents decimal notation of the status value, Y represents decimal notation of a location index value, the location index value is used to indicate a location of the at least one coding block group comprised in the data transmission in the transport block, and M represents the quantity of coding block groups comprised in the transport block.
A method comprising: capturing an image of a scene including a sub-infrared light emitter; applying a filter to a pixel of the captured image to isolate a signal strength of a range of frequencies; comparing the signal strength of the filtered pixel to an expected signal strength of a background scene spectrum for the range of frequencies; as a result of a difference between the signal strength of the filtered pixel and the expected signal strength exceeding a predetermined threshold, identifying the pixel as corresponding to a light emitter; or as a result of the difference between the signal strength of the filtered pixel and the expected signal strength being below predetermined threshold, identifying the pixel as not corresponding to a light emitter; capturing an image of a scene zone having a known spectral profile, the image having an actual spectral profile; comparing the actual spectral profile to the known spectral profile and determining an atmospheric contribution profile based on the comparison; and modifying the expected signal strength of the background scene spectrum for the range of frequencies based on the atmospheric contribution profile. capturing an image of a scene including a sub-infrared light emitter; applying a filter to a pixel of the captured image to isolate a signal strength of a range of frequencies; comparing the signal strength of the filtered pixel to an expected signal strength of a background scene spectrum for the range of frequencies; as a result of a difference between the signal strength of the filtered pixel and the expected signal strength exceeding a predetermined threshold, identifying the pixel as corresponding to a light emitter; or as a result of the difference between the signal strength of the filtered pixel and the expected signal strength being below predetermined threshold, identifying the pixel as not corresponding to a light emitter; capturing an image of a scene zone having a known spectral profile, the image having an actual spectral profile; comparing the actual spectral profile to the known spectral profile and determining an atmospheric contribution profile based on the comparison; and modifying the expected signal strength of the background scene spectrum for the range of frequencies based on the atmospheric contribution profile.
Illumination device for a vehicle, specifically a signal lamp, that has at least one light source and at least two light guide elements located in front of the same, each of which featuring a light receiving surface and a light emitting surface at a distance from the former, where the light guide elements are each designed in such a way that the light of the at least one light source is guided between the light receiving surface and the light emitting surface exploiting the total reflection at the boundary walls of the light guide element in which a main light guiding direction is guided and where the light guide elements are located at distances from each other crosswise to the main light guiding direction that an optical reflector is arranged between at least one light source and the light receiving surface , which optical reflector is designed in such a way that the light emitted by the light source is deflected at the reflector to the light receiving surfaces of the at least two light guide elements in such a way that it is incoupled through the light receiving surfaces into the light guide elements and over the further course of its beam path exits from the same at the light emitting surfaces , that the light guide elements are connected as one piece to a carrier plate , characterized in that the carrier plate has a front side facing away from the reflector at which front side the light guide elements protrude.
A pump comprising: a. a wet end body defining (i) a liquid inlet and (ii) a liquid outlet ; b. a rotatable motor shaft ; and c. a fan comprising: i. a central opening configured to receive the rotatable motor shaft ; ii. a front ; iii. a rear ; iv. an outer periphery ; v. a first plurality of blades extending from the rear , each blade of the first plurality of blades defining a first end adjacent the central opening and a second end adjacent the outer periphery ; vi. a second plurality of blades extending from the front ; and vii. a plurality of pass-through holes from the rear to the front , wherein each blade of the second plurality of blades defines a first end adjacent the central opening and a second end adjacent the outer periphery . a. a wet end body defining (i) a liquid inlet and (ii) a liquid outlet ; b. a rotatable motor shaft ; and c. a fan comprising: i. a central opening configured to receive the rotatable motor shaft ; ii. a front ; iii. a rear ; iv. an outer periphery ; v. a first plurality of blades extending from the rear , each blade of the first plurality of blades defining a first end adjacent the central opening and a second end adjacent the outer periphery ; vi. a second plurality of blades extending from the front ; and vii. a plurality of pass-through holes from the rear to the front , i. a central opening configured to receive the rotatable motor shaft ; ii. a front ; iii. a rear ; iv. an outer periphery ; v. a first plurality of blades extending from the rear , each blade of the first plurality of blades defining a first end adjacent the central opening and a second end adjacent the outer periphery ; vi. a second plurality of blades extending from the front ; and vii. a plurality of pass-through holes from the rear to the front ,
A method for wireless communication, comprising: producing an input vector comprising a first sequence of input bits, a second sequence of input bits, and a plurality of frozen bits for a polar code, wherein the first sequence of input bits comprises K 1 information bits and a u 1 -bit error-detecting code, EDC, computed based on the K 1 information bits, the second sequence of input bits comprises K 2 information bits and a u 2 -bit EDC computed based on the K 2 information bits, and the first sequence of input bits occurs in the input vector prior to the second sequence of input bits, wherein K 1 differs from K 2 ; polar encoding the input vector comprising the first sequence of input bits, the second sequence of input bits, and the plurality of frozen bits, to produce a first codeword; and transmitting the first codeword over a physical channel. producing an input vector comprising a first sequence of input bits, a second sequence of input bits, and a plurality of frozen bits for a polar code, wherein the first sequence of input bits comprises K 1 information bits and a u 1 -bit error-detecting code, EDC, computed based on the K 1 information bits, the second sequence of input bits comprises K 2 information bits and a u 2 -bit EDC computed based on the K 2 information bits, and the first sequence of input bits occurs in the input vector prior to the second sequence of input bits, wherein K 1 differs from K 2 ; the first sequence of input bits comprises K 1 information bits and a u 1 -bit error-detecting code, EDC, computed based on the K 1 information bits, the second sequence of input bits comprises K 2 information bits and a u 2 -bit EDC computed based on the K 2 information bits, and the first sequence of input bits occurs in the input vector prior to the second sequence of input bits, wherein K 1 differs from K 2 ; polar encoding the input vector comprising the first sequence of input bits, the second sequence of input bits, and the plurality of frozen bits, to produce a first codeword; and transmitting the first codeword over a physical channel.
A process for recycling laminated polymeric packaging using ethylene glycol having a recycling process for polymeric packaging, wherein the process (P) is applied to polymeric packaging (E) comprising PET, PE, PP and aluminium, with the consecutive steps: (i) granulation of the polymeric packaging (E); (ii) immersion of the polymeric packaging (E) in an ethylene glycol bath; (iii) selective dissolution of the polymeric packaging (E); (iv) separation of polymers, comprising the sub-steps of aluminium separation (4.1) and PE/PP separation (4.2); (v) washing of the polymers after the separation step , removing the glycol residues present in both PE and PP; (vi) grinding the polymers before the washing step ; (vii) cleaning and drying the aluminium after the aluminium separation sub-step (4.1); the washing and grinding steps are performed in an industrial equipment capable of cutting and grinding the packaging (E), having gutters with water and a centrifuge and air blowing drying system. (i) granulation of the polymeric packaging (E); (ii) immersion of the polymeric packaging (E) in an ethylene glycol bath; (iii) selective dissolution of the polymeric packaging (E); (iv) separation of polymers, comprising the sub-steps of aluminium separation (4.1) and PE/PP separation (4.2); (v) washing of the polymers after the separation step , removing the glycol residues present in both PE and PP; (vi) grinding the polymers before the washing step ; (vii) cleaning and drying the aluminium after the aluminium separation sub-step (4.1);
A system for delivering therapeutic radiation to a target volume within a subject, wherein the target is located at a predetermined depth , the predetermined depth being measured from an irradiated portion of the skin of the subject, the system comprising: an x-ray source generating orthovoltage x-rays; and a multi-aperture collimator , the multi-aperture collimator being configured for positioning on or near the skin and within a trajectory of the orthovoltage x-rays generated from the x-ray source , the trajectory of orthovoltage x-rays being directed at the target, the multi-aperture collimator comprising an array of apertures, each aperture having a width of between about 0.1 mm and about 0.6 mm, the multi-aperture collimator having a predetermined center-center spacing to generate an array of slightly diverging spatially distinct minibeams within the trajectory of the orthovoltage x-rays at the skin, wherein the system is configured to adjust at least one of the width and the center-center spacing of the apertures in the multi-aperture collimator , a size of the x-ray source , and a distance between the x-ray source and the multi-aperture collimator for subsequent exposures for controlling the tissue depth at which the minibeams merge to form an effective beam of therapeutic radiation. an x-ray source generating orthovoltage x-rays; and a multi-aperture collimator , the multi-aperture collimator being configured for positioning on or near the skin and within a trajectory of the orthovoltage x-rays generated from the x-ray source , the trajectory of orthovoltage x-rays being directed at the target, the multi-aperture collimator comprising an array of apertures, each aperture having a width of between about 0.1 mm and about 0.6 mm, the multi-aperture collimator having a predetermined center-center spacing to generate an array of slightly diverging spatially distinct minibeams within the trajectory of the orthovoltage x-rays at the skin,
A method of operating a dispatcher of an elevator group (112a-112c) of a building elevator system having a plurality of elevator systems (101a-101f) organized into multiple elevator groups (112a-112c), the method comprising: receiving an elevator call routed from a redirector of the building elevator system that received the elevator call, the elevator call including a desired destination; transmitting elevator status data from the elevator group to one or more other elevator groups (112a-112c) of the building elevator system ; receiving elevator status data from each of the one or more other elevator groups (112a-112c) of the building elevator system ; determining a verdict depicting whether an elevator car of the elevator group (112a-112c) is best to serve the elevator call in response to the elevator status data of each of the one or more other elevator groups (112a-112c) of the building elevator system ; and transmitting the verdict to the redirector of the building elevator system, wherein the redirector is configured to call an elevator car in response to the verdict ; receiving an elevator call routed from a redirector of the building elevator system that received the elevator call, the elevator call including a desired destination; transmitting elevator status data from the elevator group to one or more other elevator groups (112a-112c) of the building elevator system ; receiving elevator status data from each of the one or more other elevator groups (112a-112c) of the building elevator system ; determining a verdict depicting whether an elevator car of the elevator group (112a-112c) is best to serve the elevator call in response to the elevator status data of each of the one or more other elevator groups (112a-112c) of the building elevator system ; and transmitting the verdict to the redirector of the building elevator system, wherein the redirector is configured to call an elevator car in response to the verdict ;
A motor comprising: a shaft ; a rotor disposed at the shaft ; a stator disposed at an outer side of the rotor ; a busbar disposed on the stator ; a housing configured to accommodate the rotor , the stator , and the busbar , and having an opening formed at one side thereof; a bracket disposed on a side of the opening of the housing ; and a lead wire unit disposed at an end of a coil of the stator , wherein the busbar comprises a busbar body ; a fixing guide disposed to protrude from one side of the busbar body ; a reinforcing rib disposed to protrude from an upper surface of the busbar body ; and a weight groove formed in a lower surface of the busbar body , and wherein the lead wire unit comprises a lead wire ; a clamp disposed on one side of the lead wire ; and a connection terminal disposed on the other side of the lead wire , wherein the fixing guide is coupled to the coil of the stator so that the end of the coil is exposed, and that, the clamp is disposed at the exposed end of the coil coupled to the fixing guide . a shaft ; a rotor disposed at the shaft ; a stator disposed at an outer side of the rotor ; a busbar disposed on the stator ; a housing configured to accommodate the rotor , the stator , and the busbar , and having an opening formed at one side thereof; a bracket disposed on a side of the opening of the housing ; and a lead wire unit disposed at an end of a coil of the stator , wherein the busbar comprises a busbar body ; a fixing guide disposed to protrude from one side of the busbar body ; a reinforcing rib disposed to protrude from an upper surface of the busbar body ; and a weight groove formed in a lower surface of the busbar body , and wherein the lead wire unit comprises a lead wire ; a clamp disposed on one side of the lead wire ; and a connection terminal disposed on the other side of the lead wire , wherein the fixing guide is coupled to the coil of the stator so that the end of the coil is exposed, and that, the clamp is disposed at the exposed end of the coil coupled to the fixing guide .
Handheld vacuum cleaner operated with a rechargeable battery, which has: a suction opening , a motor fan unit , which is designed to generate a flow of suction air, which extends from the suction opening via a dust separation apparatus , to the motor fan unit , wherein the dust separation apparatus is designed to set air flowing in via an air inlet region to rotate about an axis of rotation , wherein the dust separation apparatus is embodied as a dust separation apparatus which is closed on the floor side, wherein at least one part of the base surface of the dust separation apparatus is embodied as a bevelled part of the base surface, which runs obliquely relative to a transverse plane of the axis of rotation , characterised in that a first part of the base surface of the dust separation apparatus runs in a transverse plane at right angles to the axis of rotation and that a second bevelled part of the base surface of the dust separation apparatus runs in a plane which is inclined about a predetermined angle relative to the transverse plane , wherein viewed from bottom up in the direction of the axis of rotation , the second bevelled part of the base surface runs obliquely outward toward the front side of the vacuum cleaner . a suction opening , a motor fan unit , which is designed to generate a flow of suction air, which extends from the suction opening via a dust separation apparatus , to the motor fan unit , wherein the dust separation apparatus is designed to set air flowing in via an air inlet region to rotate about an axis of rotation , wherein the dust separation apparatus is embodied as a dust separation apparatus which is closed on the floor side, wherein at least one part of the base surface of the dust separation apparatus is embodied as a bevelled part of the base surface, which runs obliquely relative to a transverse plane of the axis of rotation , characterised in that a first part of the base surface of the dust separation apparatus runs in a transverse plane at right angles to the axis of rotation and that a second bevelled part of the base surface of the dust separation apparatus runs in a plane which is inclined about a predetermined angle relative to the transverse plane , wherein viewed from bottom up in the direction of the axis of rotation , the second bevelled part of the base surface runs obliquely outward toward the front side of the vacuum cleaner .