mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a 3D printed article comprising: iteratively applying individual build material layers of polymer particles to a powder bed; based on a 3D object model, selectively jetting a fusible fluid onto individual build material layers, wherein the fusible fluid comprises a radiation absorber; jetting an activator fluid onto an area of the individual build material layers at a surface of the 3D printed article to form an area to be plated, wherein the activator fluid comprises an electroless metal plating activator; and exposing the powder bed to energy to selectively fuse the polymer particles in contact with the radiation absorber at individual build material layers. iteratively applying individual build material layers of polymer particles to a powder bed; based on a 3D object model, selectively jetting a fusible fluid onto individual build material layers, wherein the fusible fluid comprises a radiation absorber; jetting an activator fluid onto an area of the individual build material layers at a surface of the 3D printed article to form an area to be plated, wherein the activator fluid comprises an electroless metal plating activator; and exposing the powder bed to energy to selectively fuse the polymer particles in contact with the radiation absorber at individual build material layers.
A computer-implemented method for resuming activities using activity data collected by an operating system, comprising: (i) exposing an application programming interface (API) by way of an operating system executing on a computing device , the API configured to receive and store activity data from a plurality of applications corresponding to a plurality of activities performed during a time period, the activity data received from an application identifying the application and an activity previously performed using the application ; (ii) receiving a request to view the activity data ; (iii) responsive to receiving the request to view the activity data , presenting a user interface (UI) comprising UI controls corresponding to the plurality of activities previously performed by the user during the time period, the UI controls configured to present the activity data and each of the UI controls identifying the application and the activity previously performed using the application and wherein the UI controls are presented in the UI in an order based upon the time at which an associated activity was performed; (iv) receiving a selection of one of the UI controls in the UI ; (v) responsive to receiving the selection of one of the UI controls , causing the computing device to resume the corresponding activity by executing the associated application and initiating the previously performed activity using the application ; and (vi) repeating steps (iii)-(v). (i) exposing an application programming interface (API) by way of an operating system executing on a computing device , the API configured to receive and store activity data from a plurality of applications corresponding to a plurality of activities performed during a time period, the activity data received from an application identifying the application and an activity previously performed using the application ; (ii) receiving a request to view the activity data ; (iii) responsive to receiving the request to view the activity data , presenting a user interface (UI) comprising UI controls corresponding to the plurality of activities previously performed by the user during the time period, the UI controls configured to present the activity data and each of the UI controls identifying the application and the activity previously performed using the application and wherein the UI controls are presented in the UI in an order based upon the time at which an associated activity was performed; (iv) receiving a selection of one of the UI controls in the UI ; (v) responsive to receiving the selection of one of the UI controls , causing the computing device to resume the corresponding activity by executing the associated application and initiating the previously performed activity using the application ; and (vi) repeating steps (iii)-(v).
Dock leveller for docking a deck to a bed of a vehicle , wherein the dock leveller has a deck pivotally connected to a ramp , an actuation arrangement for moving the deck and a safety device , wherein the safety device has at least one electronically controlled valve for stopping a movement of the deck in response to a control signal, wherein the actuation arrangement for moving the deck comprises a fluid system and/or hydraulic system and at least one fluid driven and/or hydraulically driven cylinder for the movement and/or rotation of the deck , wherein the electronically controlled valve is coupled to the actuation arrangement for moving the deck over a preset range and/or to the cylinder for moving the deck , whereby the movement of the cylinder is stoppable by the electronically controlled valve in a closed state, characterized in that said safety device further comprises at least one electronic sensor , wherein an arrangement of the electronic sensor is provided for detecting a fall-movement of the deck , wherein the electronic sensor is arranged for detecting a fall-movement of the deck when a velocity of the deck exceeds a preset threshold for a preset period of time and provide a control signal for stopping the movement of the deck .
Method for holding piece goods in a sorted manner, wherein a belt being wound helically onto a spool core to form a holding roll , characterized in that the piece goods are in each case inserted with one end, one after the other into a wedge-shaped region between a holding roll and the belt and are clamped between the individual layers of the belt when the belt is further wound by means of a drive .
A method comprising: receiving information for configuring multiple forward link, FL, carriers and at least one reverse link, RL, carrier, wherein the multiple FL carriers and the at least one RL carrier are arranged in at least one group, each group including at least one FL carrier and a single RL carrier, and at least one group including at least two FL carriers, wherein one FL carrier and one RL carrier among the configured carriers are designated as a FL primary carrier and a RL primary carrier, respectively, wherein the FL primary carrier serves the purpose of one or more of originating a call, receiving signaling during call setup, performing Layer 3 signaling handoff procedure, selecting a serving base station for FL transmission based on the primary FL carrier, sending power control for a Reverse Pilot Channel, R-PICH, sending rate control for a Reverse Packet Data Channel, R-PDCH, sending acknowledgements on a Forward Acknowledgement Channel, F-ACKCH, for reverse link transmissions, sending MAC control messages on a Forward Packet Data Control Channel, F-PDCCH, to a terminal, and sending forward grant messages on a Forward Grant Channel, F-GCH, to a terminal; and after having received the information: receiving data transmission comprising packets on one or more of the previously configured multiple FL carriers in the group; receiving designated FL signaling on the primary FL carrier; and sending designated RL signaling on the primary RL carrier. receiving data transmission comprising packets on one or more of the previously configured multiple FL carriers in the group; receiving designated FL signaling on the primary FL carrier; and sending designated RL signaling on the primary RL carrier.
Method for determining an enhancement factor for a strain measurement in a machine element , comprising the following steps: Attaching (S1) a strain measurement device to a measurement surface portion of the machine element; Causing (S2) a static or dynamic deformation of the machine element ; Measuring (S3) a strain in the measurement surface portion using the strain measurement device ; Measuring (S4) a displacement of at least one detection surface portion of the machine element , which differs from the measurement surface portion , by optically scanning the machine element ; Determining (S5) a displacement field on a surface of the machine element on the basis of a model of the machine element and the measured displacement of the at least one detection surface portion ; Determining (S6) a strain field on the surface of the machine element on the basis of the determined displacement field and the model of the machine element ; and Determining (S7) an enhancement factor of the strain measurement device on the basis of the measured strain in the measurement surface portion and the determined strain field, wherein the enhancement factor is a ratio of a maximum strain in the strain field and the measured strain in the measurement surface portion . Attaching (S1) a strain measurement device to a measurement surface portion of the machine element; Causing (S2) a static or dynamic deformation of the machine element ; Measuring (S3) a strain in the measurement surface portion using the strain measurement device ; Measuring (S4) a displacement of at least one detection surface portion of the machine element , which differs from the measurement surface portion , by optically scanning the machine element ; Determining (S5) a displacement field on a surface of the machine element on the basis of a model of the machine element and the measured displacement of the at least one detection surface portion ; Determining (S6) a strain field on the surface of the machine element on the basis of the determined displacement field and the model of the machine element ; and Determining (S7) an enhancement factor of the strain measurement device on the basis of the measured strain in the measurement surface portion and the determined strain field, wherein the enhancement factor is a ratio of a maximum strain in the strain field and the measured strain in the measurement surface portion .
A diode circuit comprising a self conducting transistor and a diode , wherein a drain contact (D) of the transistor forming or being connected to an outer cathode contact (C*) of the diode circuit, wherein a gate contact (G) of the transistor is connected to an anode contact (A) of the diode , and wherein the gate contact (G) of the transistor and the anode contact (A) of the diode are connected to an outer anode contact (A*) of the diode circuit, wherein a source contact (S) of the transistor is connected to a cathode (C) of the diode, characterized in that the transistor and the diode comprise a common GaN semiconductor layer arranged on a common substrate ; wherein the diode comprises a first AlGaN semiconductor layer disposed on the common GaN semiconductor layer , wherein the first AlGaN semiconductor layer and the common GaN semiconductor layer are formed and arranged, such that a two-dimensional electron lake is formed between them, and wherein the anode contact (A) of the diode and the cathode contact (C) of the diode are arranged on that upper side which faces away from the common GaN semiconductor layer of the first AlGaN semiconductor layer ; wherein the transistor is an AlGaN/GaN field effect transistor and comprises a second AlGaN semiconductor layer , that is separated from the first semiconductor layer and is arranged on the common GaN semiconductor layer , wherein the second AlGaN semiconductor layer and the common GaN semiconductor layer are formed and arranged, such that a further two-dimensional electron lake is formed between them, and wherein the source contact (S), the gate contact (G) and the drain contact (D) are arranged on that upper side which faces away from the common semiconductor layer of the second AlGaN semiconductor layer ; and wherein the anode contact (A) of the diode is a Schottky contact, the cathode contact (C) of the diode is an ohmic contact, the source contact (S) of the transistor is an ohmic contact, and the drain contact (D) of the transistor is an ohmic contact.
A solar energy device comprising: at least one of a photovoltaic cell or a solar thermal collector having an absorption bandwidth that includes at least a portion of the near infrared wavelength region of the solar spectrum; a visible light-transmitting reflector having first and second generally opposed major surfaces, the visible light-transmitting reflector positioned to reflect light from the first major surface onto the at least one of a photovoltaic cell or a solar thermal collector, the visible light-transmitting reflector comprising a multilayer optical film having an optical stack comprising a plurality of alternating first and second optical layers with different indices of refraction, wherein the multilayer optical film reflects at least a portion of light in a range of wavelengths that corresponds with the absorption bandwidth of the at least one of a photovoltaic cell or a solar thermal collector; and wherein the solar energy device further comprises either at least one of a graphic film or lighted display positioned closer to the second major surface of the visible light-transmitting reflector than to the first major surface of the visible light-transmitting reflector, wherein the graphic film or a lighted display present is visible through the visible light-transmitting reflector; or a partially transmissive graphic film positioned closer to the first major surface of the visible light-transmitting reflector than to the second major surface of the visible light-transmitting reflector, wherein infrared light passes through the partially transmissive graphic film. at least one of a photovoltaic cell or a solar thermal collector having an absorption bandwidth that includes at least a portion of the near infrared wavelength region of the solar spectrum; a visible light-transmitting reflector having first and second generally opposed major surfaces, the visible light-transmitting reflector positioned to reflect light from the first major surface onto the at least one of a photovoltaic cell or a solar thermal collector, the visible light-transmitting reflector comprising a multilayer optical film having an optical stack comprising a plurality of alternating first and second optical layers with different indices of refraction, wherein the multilayer optical film reflects at least a portion of light in a range of wavelengths that corresponds with the absorption bandwidth of the at least one of a photovoltaic cell or a solar thermal collector; and wherein the solar energy device further comprises either at least one of a graphic film or lighted display positioned closer to the second major surface of the visible light-transmitting reflector than to the first major surface of the visible light-transmitting reflector, wherein the graphic film or a lighted display present is visible through the visible light-transmitting reflector; or a partially transmissive graphic film positioned closer to the first major surface of the visible light-transmitting reflector than to the second major surface of the visible light-transmitting reflector, wherein infrared light passes through the partially transmissive graphic film.
A method for creating a 3D relief effect on a ceramic tile, comprising in order the following steps: step one, with an inkjet printer and an inkjet print head, printing a relief pattern with an effect ink having a low surface tension on a ceramic tile; step two, with said inkjet printer and an inkjet print head, applying an aqueous glaze slurry, having a high surface tension, on top of said effect ink; step three, printing an image on said glaze; and step four, firing said tile; wherein a difference in surface tensions causes the aqueous glaze to move away from the printed effect ink, resulting in a relief pattern in said image at locations of the printed relief pattern. step one, with an inkjet printer and an inkjet print head, printing a relief pattern with an effect ink having a low surface tension on a ceramic tile; step two, with said inkjet printer and an inkjet print head, applying an aqueous glaze slurry, having a high surface tension, on top of said effect ink; step three, printing an image on said glaze; and step four, firing said tile; wherein a difference in surface tensions causes the aqueous glaze to move away from the printed effect ink, resulting in a relief pattern in said image at locations of the printed relief pattern.
A pinion for an aircraft turbomachine gear train, the pinion comprising: - a cylindrical body extending along an axis (A) and configured to engage with a shaft received in the cylindrical body, - a rim concentric with the cylindrical body , - a web axially delimited by a front wall and a rear wall and extending radially from the cylindrical body to the rim , each of the front and rear walls having a density, the web comprising a cross-linked structure around the cylindrical body between the front wall and the rear wall , the pinion being characterized in that the cross-linked structure comprises an elementary mesh (M) repeated along three axes of a three-dimensional reference frame forming a lattice structure, a mass density of the elementary mesh being strictly smaller than each of the densities of the front and rear walls. - a cylindrical body extending along an axis (A) and configured to engage with a shaft received in the cylindrical body, - a rim concentric with the cylindrical body , - a web axially delimited by a front wall and a rear wall and extending radially from the cylindrical body to the rim , each of the front and rear walls having a density, the web comprising a cross-linked structure around the cylindrical body between the front wall and the rear wall ,
A system for printing a three-dimensional object, comprising: a first network interface to obtain a 3D model from a client system ; a second network interface; a print bureau data collection engine to identify capabilities of a plurality of print bureaus ; a print bureau filter to compare characteristics of the 3D model with the capabilities of the plurality of print bureaus to identify a subset of the plurality of print bureaus that are able to print the 3D model and send the subset to the client system via the first network interface to enable one of the print bureaus from the subset to print the 3D model; a printability check engine to automatically process the 3D model to determine if the 3D model is printable; and a model repair engine to modify the 3D model to correct any detected defects in the 3D model; wherein the printability check engine is configured to launch the model repair engine if the printability check engine determines that the 3D model is not printable, wherein enabling one of the print bureaus from the subset to print the 3D model comprises: receiving, by the first network interface, from the client system an identification of a selected print bureau among said sent subset, and uploading, by the second network interface, to said selected print bureau either the 3D model, if the 3D model is determined printable, or the modified 3D model, if the 3D model is determined not printable. a first network interface to obtain a 3D model from a client system ; a second network interface; a print bureau data collection engine to identify capabilities of a plurality of print bureaus ; a print bureau filter to compare characteristics of the 3D model with the capabilities of the plurality of print bureaus to identify a subset of the plurality of print bureaus that are able to print the 3D model and send the subset to the client system via the first network interface to enable one of the print bureaus from the subset to print the 3D model; a printability check engine to automatically process the 3D model to determine if the 3D model is printable; and a model repair engine to modify the 3D model to correct any detected defects in the 3D model; wherein the printability check engine is configured to launch the model repair engine if the printability check engine determines that the 3D model is not printable, wherein enabling one of the print bureaus from the subset to print the 3D model comprises: receiving, by the first network interface, from the client system an identification of a selected print bureau among said sent subset, and uploading, by the second network interface, to said selected print bureau either the 3D model, if the 3D model is determined printable, or the modified 3D model, if the 3D model is determined not printable. receiving, by the first network interface, from the client system an identification of a selected print bureau among said sent subset, and uploading, by the second network interface, to said selected print bureau either the 3D model, if the 3D model is determined printable, or the modified 3D model, if the 3D model is determined not printable.
An absorber structure for a thermal detector, the absorber structure comprising: edges defining a basic form, a plurality of first legs (103-106, 133-135, 304-306, 404, 405) of electrically conducting material joined in an electrically conductive manner to form, between the edges of the absorber structure, a grid having openings, the first legs forming at least one continuous connection between the edges of the absorber structure; characterized in that the absorber structure comprises a plurality of second legs (107-110, 207-210, 308, 309, 407-410, 608, 609, 808, 810) of electrically conducting material joined in an electrically conductive manner to the first legs, wherein the second legs protrude from the first legs into the openings of the grid and terminate at points of termination located at a distance from adjacent first legs. edges defining a basic form, a plurality of first legs (103-106, 133-135, 304-306, 404, 405) of electrically conducting material joined in an electrically conductive manner to form, between the edges of the absorber structure, a grid having openings, the first legs forming at least one continuous connection between the edges of the absorber structure; characterized in that the absorber structure comprises a plurality of second legs (107-110, 207-210, 308, 309, 407-410, 608, 609, 808, 810) of electrically conducting material joined in an electrically conductive manner to the first legs, wherein the second legs protrude from the first legs into the openings of the grid and terminate at points of termination located at a distance from adjacent first legs.
An annular barrier to be expanded in an annulus between a well tubular structure and an inner face of a borehole or a casing downhole for providing zone isolation between a first zone and a second zone of the borehole, the annular barrier comprising: - a tubular part adapted to be mounted as part of the well tubular structure, - a downhole expandable metal tubular surrounding the tubular part and having an outer face facing the inner face of the borehole or the casing, each end of the downhole expandable metal tubular being connected with the tubular part, and - an annular space between the downhole expandable metal tubular and the tubular part, characterised in that the downhole expandable metal tubular having an axial extension, to be expanded in a well downhole to abut the inner face of the casing or the borehole, wherein the downhole expandable metal tubular is corrugated, forming projections and grooves , and the downhole expandable metal tubular has a substantially even thickness (t). - a tubular part adapted to be mounted as part of the well tubular structure, - a downhole expandable metal tubular surrounding the tubular part and having an outer face facing the inner face of the borehole or the casing, each end of the downhole expandable metal tubular being connected with the tubular part, and - an annular space between the downhole expandable metal tubular and the tubular part,