mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for manufacturing a metallic component (C) or portion thereof, comprising: a build plate including a build surface , a bottom surface and an aperture extending through the build plate between the bottom surface and the build surface ; an actuator operable to translate a metallic component (C) with respect to the build plate such that an end portion of the metallic component (C) is positioned within the aperture of the build plate and below the build surface ; a seal coupled within the aperture of the build plate and configured to engage the end portion of the metallic component (C); and an external heat control mechanism positioned proximate to the bottom surface of the build plate and operable to form a predetermined temperature profile of the end portion to prevent cracking of the component (C), wherein the aperture of the build plate , the seal , and the end portion of the metallic component (C) cooperate to form a powder bed configured to hold metallic powder (P) of a predetermined composition therein; and a beam directing mechanism operable to direct an energy beam (B) over the metallic powder (P) in a pattern to fuse the metallic powder (P) to the end portion . a build plate including a build surface , a bottom surface and an aperture extending through the build plate between the bottom surface and the build surface ; an actuator operable to translate a metallic component (C) with respect to the build plate such that an end portion of the metallic component (C) is positioned within the aperture of the build plate and below the build surface ; a seal coupled within the aperture of the build plate and configured to engage the end portion of the metallic component (C); and an external heat control mechanism positioned proximate to the bottom surface of the build plate and operable to form a predetermined temperature profile of the end portion to prevent cracking of the component (C), wherein the aperture of the build plate , the seal , and the end portion of the metallic component (C) cooperate to form a powder bed configured to hold metallic powder (P) of a predetermined composition therein; and a beam directing mechanism operable to direct an energy beam (B) over the metallic powder (P) in a pattern to fuse the metallic powder (P) to the end portion .
A balloon catheter comprising: an outer tube having a lumen; an inner tube that is disposed in the lumen of the outer tube and has a guide wire lumen through which a guide wire (W) is insertable; and a balloon fixed on a distal side of the inner tube and on a distal side of the outer tube , wherein the inner tube has a tubular body made of a first resin and a reinforcing member disposed on an inner side of the tubular body , wherein the reinforcing member is configured of a linear body including a second resin , wherein the inner tube has a first region including a distal portion provided with a distal opening portion and a second region that is disposed to be closer to a proximal side than the first region , characterized in that a proximal portion of the inner tube is provided to form a proximal opening portion formed at the proximal end of the inner tube that communicates with the guide wire lumen in the middle of the outer tube , and that the linear body projects from an inner surface of the tubular body in the second region and less projects from the inner surface of the tubular body in the first region than in the second region . an outer tube having a lumen; an inner tube that is disposed in the lumen of the outer tube and has a guide wire lumen through which a guide wire (W) is insertable; and a balloon fixed on a distal side of the inner tube and on a distal side of the outer tube , wherein the inner tube has a tubular body made of a first resin and a reinforcing member disposed on an inner side of the tubular body , wherein the reinforcing member is configured of a linear body including a second resin , wherein the inner tube has a first region including a distal portion provided with a distal opening portion and a second region that is disposed to be closer to a proximal side than the first region , characterized in that a proximal portion of the inner tube is provided to form a proximal opening portion formed at the proximal end of the inner tube that communicates with the guide wire lumen in the middle of the outer tube , and that the linear body projects from an inner surface of the tubular body in the second region and less projects from the inner surface of the tubular body in the first region than in the second region .
Mobile communication device for communication in a wireless network , the mobile communication device comprising: a functional unit , which is configured to communicate in the wireless network , and a testing unit , which is coupled to the functional unit and is configured to controllably exchange test data with the functional unit , wherein the functional unit comprises a test controller , which is configured to control the testing unit to receive test data from the functional unit , or to provide test data to the functional unit , wherein the testing unit or the test controller is configured to evaluate the test data , wherein to evaluate the test data comprises to measure parameters or to analyze contents of the test data or a signal generated based on the test data , which allows to judge the correct function of the functional unit , characterized in that the test controller comprises a data injection and sniffing interface to a communication protocol stack of the functional unit and is configured to provide test data to the communication protocol stack of the functional unit and to read digital data from the communication protocol stack of the functional unit . a functional unit , which is configured to communicate in the wireless network , and a testing unit , which is coupled to the functional unit and is configured to controllably exchange test data with the functional unit , wherein the functional unit comprises a test controller , which is configured to control the testing unit to receive test data from the functional unit , or to provide test data to the functional unit , wherein the testing unit or the test controller is configured to evaluate the test data , wherein to evaluate the test data comprises to measure parameters or to analyze contents of the test data or a signal generated based on the test data , which allows to judge the correct function of the functional unit , characterized in that the test controller comprises a data injection and sniffing interface to a communication protocol stack of the functional unit and is configured to provide test data to the communication protocol stack of the functional unit and to read digital data from the communication protocol stack of the functional unit .
Method for transferring cargo from a cargo receiving portion of a vehicle to a cargo take-up station , characterized in that the vehicle is controlled by a vehicle control unit such that the vector of the velocity of the vehicle is changed immediately before or on arrival at the cargo take-up station and the vehicle is oriented by the vehicle control unit and/or by at least one guiding system positioned in the region of the cargo take-up station before the arrival at the cargo take-up station such that the trajectory of the cargo moving away from the cargo receiving portion as a result of the change of the velocity vector ends in a receiving section of the cargo take-up station .
A magnetic sheet comprising: a magnetic layer formed of a magnetic body in a sheet shape crushed into a plurality of pieces to improve flexibility of the magnetic sheet ; and a thin film coating layer formed on at least one surface of the magnetic layer , wherein a thickness of the thin film coating layer is 10 μm or less, and the thin film coating layer is single-layer formed by solidifying an ethylene propylene diene monomer, EPDM, rubber to maintain the magnetic layer in a sheet shape and buffer an external force applied to the plurality of pieces of the magnetic body. a magnetic layer formed of a magnetic body in a sheet shape crushed into a plurality of pieces to improve flexibility of the magnetic sheet ; and a thin film coating layer formed on at least one surface of the magnetic layer , wherein a thickness of the thin film coating layer is 10 μm or less, and the thin film coating layer is single-layer formed by solidifying an ethylene propylene diene monomer, EPDM, rubber to maintain the magnetic layer in a sheet shape and buffer an external force applied to the plurality of pieces of the magnetic body.
A method for a network node supporting communication at least with a wireless device, WD, and a sensor configured to provide visual information, the method comprising: transmitting (S100) a first signal to the WD , the first signal including a request for the WD to transmit a report; determining (S102) whether the network node has received the report from the WD within a predetermined period of time; and if the network node has not received the report from the WD within the predetermined period of time, entering (S104) an alternate mode of communication with the WD , the alternate mode of communication including: obtaining the visual information from the sensor ; determining a fallback format for transmission based at least in part on the obtained visual information; and transmitting a second signal to the WD using the fallback format. transmitting (S100) a first signal to the WD , the first signal including a request for the WD to transmit a report; determining (S102) whether the network node has received the report from the WD within a predetermined period of time; and if the network node has not received the report from the WD within the predetermined period of time, entering (S104) an alternate mode of communication with the WD , the alternate mode of communication including: obtaining the visual information from the sensor ; determining a fallback format for transmission based at least in part on the obtained visual information; and transmitting a second signal to the WD using the fallback format. obtaining the visual information from the sensor ; determining a fallback format for transmission based at least in part on the obtained visual information; and transmitting a second signal to the WD using the fallback format.
A method for molding a part comprising: determining the number of gates needed in a part mold to fill a part cavity while maintaining selected molding pressure; forming a mold having a part cavity with the determined number of gates, each gate being positioned to balance flow length ratio, the mold also having an electromagnet adjacent the part cavity; characterised by inserting flowing material through said gates to form a molded-in-metallic part using a specific sequence of gate openings according to selected gate timing, wherein the material comprises a ferromagnetic pigment; and energizing the electromagnet, wherein inserting flowing material through said gates using a specific sequence of gate openings according to selected gate timing comprises: injecting material into a first gate; determining the time necessary for material to travel from said first gate to a second gate; and opening said second gate when the flow passes said second gate. determining the number of gates needed in a part mold to fill a part cavity while maintaining selected molding pressure; forming a mold having a part cavity with the determined number of gates, each gate being positioned to balance flow length ratio, the mold also having an electromagnet adjacent the part cavity; characterised by inserting flowing material through said gates to form a molded-in-metallic part using a specific sequence of gate openings according to selected gate timing, wherein the material comprises a ferromagnetic pigment; and energizing the electromagnet, wherein inserting flowing material through said gates using a specific sequence of gate openings according to selected gate timing comprises: injecting material into a first gate; determining the time necessary for material to travel from said first gate to a second gate; and opening said second gate when the flow passes said second gate. injecting material into a first gate; determining the time necessary for material to travel from said first gate to a second gate; and opening said second gate when the flow passes said second gate.
An endoscope system comprising: an endoscope comprising: a tip section having at least one viewing element; a main connector (202; 410; 600) coupled with the tip section and configured to receive and transmit a first set of video data signals from the at least one viewing element, wherein the main connector (202; 410; 600) comprises at least one pad ; and a control unit (199; 216) comprising: a receptacle (302; 500) positioned on an exterior surface of the control unit (199; 216) and configured to receive the main connector (202; 410; 600), wherein the receptacle (302; 500) has a first region (111; 224; 502), wherein the first region (111; 224; 502) comprises at least one probe , wherein said at least one probe comprises a spring loaded pin, wherein, upon attachment of the main connector (202; 410; 600) to said receptacle (302; 500), the at least one probe abuts the at least one pad such that the at least one probe is compressed, wherein the receptacle (302; 500) further comprises a second region (117; 226; 510), wherein said second region (117; 226; 510) comprises a multi-pin interface configured to receive a second set of video data signals, and wherein the second set of video data signals have a lower bandwidth than a bandwidth of the first set of video data signals. an endoscope comprising: a tip section having at least one viewing element; a main connector (202; 410; 600) coupled with the tip section and configured to receive and transmit a first set of video data signals from the at least one viewing element, wherein the main connector (202; 410; 600) comprises at least one pad ; and a tip section having at least one viewing element; a main connector (202; 410; 600) coupled with the tip section and configured to receive and transmit a first set of video data signals from the at least one viewing element, wherein the main connector (202; 410; 600) comprises at least one pad ; and a control unit (199; 216) comprising: a receptacle (302; 500) positioned on an exterior surface of the control unit (199; 216) and configured to receive the main connector (202; 410; 600), wherein the receptacle (302; 500) has a first region (111; 224; 502), wherein the first region (111; 224; 502) comprises at least one probe , wherein said at least one probe comprises a spring loaded pin, wherein, upon attachment of the main connector (202; 410; 600) to said receptacle (302; 500), the at least one probe abuts the at least one pad such that the at least one probe is compressed, wherein the receptacle (302; 500) further comprises a second region (117; 226; 510), wherein said second region (117; 226; 510) comprises a multi-pin interface configured to receive a second set of video data signals, and wherein the second set of video data signals have a lower bandwidth than a bandwidth of the first set of video data signals.
Injection arrangement for inserting an intraocular lens into the capsular sac of an eye, comprising an actuator having a shape-memory material with a transition temperature, a first longitudinal end and a second longitudinal end , a support seat on which the actuator is supported in the region of the first longitudinal end , a stamp supported so as to be longitudinally displaceable in the injector arrangement , wherein the stamp is configured to displace an intraocular lens on account of itself being longitudinally displaced and is fastened at the second longitudinal end , and a heating apparatus configured to heat the actuator to a temperature above the transition temperature, as a result of which the actuator changes its length and the stamp is thus longitudinally displaced, wherein the injector arrangement comprises a resistance measurement apparatus configured to measure the electrical resistance of the actuator , wherein the injector arrangement comprises a closed-loop control apparatus configured to control the temperature of the actuator taking into account the electrical resistance, wherein the closed-loop control apparatus is configured to reduce the speed during the longitudinal displacement of the stamp so that the speed of the stamp is low at the end of the longitudinal displacement.
A foam molding method for performing molding by filling a mold composed of a fixed mold and a movable mold , clamped by a predetermined mold clamping force, with a resin containing a foaming agent at a predetermined injection pressure, the foam molding method comprising: a resin filling step of filling the mold, clamped by the predetermined mold clamping force, with the resin at the predetermined injection pressure; a filling stopping step of stopping the filling when, while monitoring a mold gap of the mold during the filling, a predetermined mold gap value set in advance is reached; a surface layer curing and filled resin cooling step of curing a surface layer of the resin for a certain time, and cooling the filled resin for a certain time after the filling is stopped; a volume controlling step of controlling a volume increase by reducing the mold clamping force; and a taking out step of taking out a foam-molded product by opening the mold after the volume control is performed and after cooling the filled resin for a certain time; characterized in that the volume controlling step of controlling a volume increase by reducing the mold clamping force takes place after curing the surface layer of the resin for a certain time. a resin filling step of filling the mold, clamped by the predetermined mold clamping force, with the resin at the predetermined injection pressure; a filling stopping step of stopping the filling when, while monitoring a mold gap of the mold during the filling, a predetermined mold gap value set in advance is reached; a surface layer curing and filled resin cooling step of curing a surface layer of the resin for a certain time, and cooling the filled resin for a certain time after the filling is stopped; a volume controlling step of controlling a volume increase by reducing the mold clamping force; and a taking out step of taking out a foam-molded product by opening the mold after the volume control is performed and after cooling the filled resin for a certain time; characterized in that the volume controlling step of controlling a volume increase by reducing the mold clamping force takes place after curing the surface layer of the resin for a certain time.
Magnetic field sensor comprising a device housing which has at least one sensor element housing part and one connection element housing part , wherein the connection element housing part is arranged at least partially in the sensor element housing part in the direction of a longitudinal axis (L) of the device housing and wherein the connection element housing part and the sensor element housing part are connected by means of a beading , characterized in that a device housing outer side of the device housing has a toothing region which has a toothing of the connection element housing part with the sensor element housing part , wherein, in the toothing region , a toothing section of the connection element housing part and a toothing section of the sensor element housing part engage one in the other and form the device housing outer side, and wherein, in the toothing region on the housing outer side, a seal which secures the connection of the connection element housing part and the sensor element housing part is arranged on the connection element housing part and the sensor element housing part .
A method for aggregating flexibilities of electrical energy consumption or production of a plurality of sites constituting together a client portfolio, which is implemented by computer means and which includes the following steps: a) sending a request for consumption or production flexibilities from a manager of an electrical network (GESR) to an aggregator (AGR); b) aggregating (B2) by said aggregator (AGR) the individual flexibilities (B7) of the sites available in said client portfolio, these individual flexibilities being made up of as many individual flexibility models as there are sites available; c) activating (B3) said available flexibilities, characterized by the fact that it further includes the following steps: d) measuring (B4) the actual power curves, i.e. load respectively production curves of said sites during the activation of step c); e) calculating (B5) a posteriori, i.e. after the end of the activation of step c), the actual flexibility achieved for each of said sites; f) on each reiteration of said steps b) to e), adapting (B6) said individual flexibility models by machine learning. a) sending a request for consumption or production flexibilities from a manager of an electrical network (GESR) to an aggregator (AGR); b) aggregating (B2) by said aggregator (AGR) the individual flexibilities (B7) of the sites available in said client portfolio, these individual flexibilities being made up of as many individual flexibility models as there are sites available; c) activating (B3) said available flexibilities, d) measuring (B4) the actual power curves, i.e. load respectively production curves of said sites during the activation of step c); e) calculating (B5) a posteriori, i.e. after the end of the activation of step c), the actual flexibility achieved for each of said sites; f) on each reiteration of said steps b) to e), adapting (B6) said individual flexibility models by machine learning.