mhurhangee/patent-ind-claim-en huggingface dataset:
A method for additive manufacturing, comprising: forming at least one first layer structure ; forming a second layer structure on the first layer structure and a first support structure ; removing the first support structure from the second layer structure ; characterized by forming, before said removing the first support structure , a third layer structure on the second layer structure and a second support structure , the second support structure being located at least partially on the first support structure ; and removing the second support structure from the third layer structure , wherein said forming the at least one first layer structure includes forming a chassis bottom ; said forming the second layer structure includes forming a fender and a suspension assembly mount location each connected to the chassis bottom , the fender defining a fender top opening ; and said forming the third layer structure includes forming a fender top on the second support structure and covering the fender top opening . forming at least one first layer structure ; forming a second layer structure on the first layer structure and a first support structure ; removing the first support structure from the second layer structure ; characterized by forming, before said removing the first support structure , a third layer structure on the second layer structure and a second support structure , the second support structure being located at least partially on the first support structure ; and removing the second support structure from the third layer structure , wherein said forming the at least one first layer structure includes forming a chassis bottom ; said forming the second layer structure includes forming a fender and a suspension assembly mount location each connected to the chassis bottom , the fender defining a fender top opening ; and said forming the third layer structure includes forming a fender top on the second support structure and covering the fender top opening . said forming the at least one first layer structure includes forming a chassis bottom ; said forming the second layer structure includes forming a fender and a suspension assembly mount location each connected to the chassis bottom , the fender defining a fender top opening ; and said forming the third layer structure includes forming a fender top on the second support structure and covering the fender top opening .
Sliding contact for electrically conductive contacting of a rotor of an electric motor, comprising a contact piece designed as a sintered body and an elongated connecting conductor materiel-lockingly fixed in a recess of the contact piece by means of an electrically conductive adhesive, the recess being designed as a groove in which the connecting conductor is inserted axially, characterised in that the groove runs along a narrow side of the contact piece and in that the connecting conductor is additionally interlockingly connected to the contact piece by means of a solidified mass of an electrically conductive powder impregnated with an adhesive .
Fluidic device with at least one fluidic device component with one first fluid intake and/or conductive area comprising a first fluid inlet and a first fluid outlet , at least one second fluid intake and/or conductive area comprising a second fluid inlet and a second fluid outlet , and at least one fluid valve provided between the first fluid outlet and the second fluid inlet , which releases a fluid transport way between the first fluid outlet and the second fluid inlet in an open state, wherein the fluid valve comprises a valve seat extending between the first fluid intake and/or conductive area and the second fluid intake and/or conductive area ; a top layer is provided on a first opening area of the first fluid intake and/or conductive area adjacent to the valve seat , on a valve seat surface and on a second opening area of the second fluid intake and/or conductive area adjacent to the valve seat by means of an adhesive layer provided thereon, wherein the adhesive layer forms a valve seal between the valve seat surface and the top layer , wherein the top layer along with the adhesive layer provided thereon adheres to the valve seat and the adhesive areas of surface areas of the fluidic device component ; and the adhesive layer comprises a decreasing adhesive effect under the influence of heat and/or electromagnetic radiation.
A drill bit, comprising: a force application device on a body (510; 610; 810) of the drill bit (500; 600; 800; 950), wherein the force application device includes: a floating member (508; 608; 804) and a force application member (502; 602; 802; 962) configured to extend from the floating member (508; 608; 804) to apply a force on a wellbore wall when the drill bit is used to drill a wellbore ; and an actuator configured to actuate the force application member (502; 602; 802; 962) to apply the force to a wellbore wall during drilling of the wellbore characterised in that : the floating member (508; 608; 804) is a floating sleeve mounted on an outside of the body (510;610; 810) of the drill bit (500; 600; 800; 950); and the force application member (502; 602; 802; 962) is configured to move radially outward from the floating sleeve (508; 608; 804) when driven by the actuator. a force application device on a body (510; 610; 810) of the drill bit (500; 600; 800; 950), wherein the force application device includes: a floating member (508; 608; 804) and a force application member (502; 602; 802; 962) configured to extend from the floating member (508; 608; 804) to apply a force on a wellbore wall when the drill bit is used to drill a wellbore ; and an actuator configured to actuate the force application member (502; 602; 802; 962) to apply the force to a wellbore wall during drilling of the wellbore characterised in that : the floating member (508; 608; 804) is a floating sleeve mounted on an outside of the body (510;610; 810) of the drill bit (500; 600; 800; 950); and the force application member (502; 602; 802; 962) is configured to move radially outward from the floating sleeve (508; 608; 804) when driven by the actuator. the floating member (508; 608; 804) is a floating sleeve mounted on an outside of the body (510;610; 810) of the drill bit (500; 600; 800; 950); and the force application member (502; 602; 802; 962) is configured to move radially outward from the floating sleeve (508; 608; 804) when driven by the actuator.
An eccentric screw pump with at least one stator of an elastic material and a rotor , which is rotatable in the stator , wherein the stator is at least in certain regions surrounded by a stator casing , wherein the stator casing is realized in the form of a longitudinally divided casing consisting of at least two casing segments and forms a stator tensioning device, by means of which the stator can be tensioned relative to the rotor in the radial direction, and wherein the stator tensioning device comprises one or more movable adjusting elements, which act upon the casing segments in order to adjust and tension the stator, characterized in that the stator tensioning device comprises one or more actuating drives , which are connected to the adjusting elements or equipped with the adjusting elements, for an automated adjustment of the stator , in that the actuating drives are connected to a control device or equipped with a control device, and in that the actuating drives can be driven by the control device in dependence on status information or operating parameters of the eccentric screw pump in order to re-tension the stator, as well as to relieve the tension of the stator.
Process for thermo-adhesive bonding of semi-finished products, comprising: preparing at least one inner sock ; preparing at least one outer sock ; preparing at least one membrane with a thermo-adhesive placed on an inner surface and/or on an outer surface of said membrane ; fitting the inner sock on a rigid reference shape ; fitting the membrane over the rigid reference shape and over the inner sock ; fitting the outer sock over the rigid reference shape and over the membrane ; heating the outer sock , the membrane and the inner sock arranged on the rigid reference shape until at least partial melting of the thermo-adhesive is determined; cooling the outer sock , the membrane and the inner sock arranged on the rigid reference shape until cross-linking of the thermo-adhesive and the stable union of the membrane with the outer sock and/or inner sock is determined; wherein, during cooling, it is also provided to exert a substantially uniform pressure on the outer sock , on the membrane and on the inner sock arranged on the rigid reference shape to compact said outer sock , membrane and inner sock . preparing at least one inner sock ; preparing at least one outer sock ; preparing at least one membrane with a thermo-adhesive placed on an inner surface and/or on an outer surface of said membrane ; fitting the inner sock on a rigid reference shape ; fitting the membrane over the rigid reference shape and over the inner sock ; fitting the outer sock over the rigid reference shape and over the membrane ; heating the outer sock , the membrane and the inner sock arranged on the rigid reference shape until at least partial melting of the thermo-adhesive is determined; cooling the outer sock , the membrane and the inner sock arranged on the rigid reference shape until cross-linking of the thermo-adhesive and the stable union of the membrane with the outer sock and/or inner sock is determined; wherein, during cooling, it is also provided to exert a substantially uniform pressure on the outer sock , on the membrane and on the inner sock arranged on the rigid reference shape to compact said outer sock , membrane and inner sock .
A method for installing an embedded subscriber identity module, eSIM, profile by a terminal applying an integrated smart secure platform, iSSP, the method comprising: receiving an input of an activation code; obtaining information on an eSIM bundle where the eSIM profile is to be installed, in case that the activation code is related to a request of an eSIM profile; identifying whether at least one eSIM bundle capable of downloading the eSIM profile exists in the terminal based on the obtained information; performing an eSIM profile download procedure for one of the at least one eSIM bundle, in case that the at least one eSIM bundle exists in the terminal and the one of the at least one bundle is selected for downloading the eSIM profile from the at least one bundle; and performing an eSIM bundle obtaining procedure for downloading the eSIM profile, in case that the at least one eSIM bundle does not exist in the terminal or the one of the at least one eSIM bundle is not selected. receiving an input of an activation code; obtaining information on an eSIM bundle where the eSIM profile is to be installed, in case that the activation code is related to a request of an eSIM profile; identifying whether at least one eSIM bundle capable of downloading the eSIM profile exists in the terminal based on the obtained information; performing an eSIM profile download procedure for one of the at least one eSIM bundle, in case that the at least one eSIM bundle exists in the terminal and the one of the at least one bundle is selected for downloading the eSIM profile from the at least one bundle; and performing an eSIM bundle obtaining procedure for downloading the eSIM profile, in case that the at least one eSIM bundle does not exist in the terminal or the one of the at least one eSIM bundle is not selected.
A method of determining pixel dropout of a printhead (30, 52a-d) that has a plurality of print elements arrayed along a first axis (X-X), comprising: a) using a mechanical image capture device to capture an image of a printed image on a surface of a retransfer film , the printed image is printed on the retransfer film using the printhead; b) inputting the captured image into a processing device and using the processing device to generate a dataset of integrated intensity values, in a printing direction (Y-Y) along the path of relative travel between the printhead and the retransfer film, of the captured image; and characterized in that the method further comprises: c) using the dataset to determine if pixel dropout has occurred, including using the processing device to compare the dataset generated from the captured image to an expected dataset generated from print data used to generate the printed image. a) using a mechanical image capture device to capture an image of a printed image on a surface of a retransfer film , the printed image is printed on the retransfer film using the printhead; b) inputting the captured image into a processing device and using the processing device to generate a dataset of integrated intensity values, in a printing direction (Y-Y) along the path of relative travel between the printhead and the retransfer film, of the captured image;
An electrophotographic member comprising an electro-conductive mandrel and an electro-conductive layer, wherein the electro-conductive layer comprises a urethane resin and an ion-conductive agent, the urethane resin has, between two adjacent urethane bonds, a structure represented by the following structure and at least one structure selected from the group consisting of a structure represented by the following structure and a structure represented by the following structure , and the ion-conductive agent contains at least one anion selected from a fluorinated sulfonylimide anion, a fluorinated sulfonylmethide anion, a fluorinated sulfonate anion, a fluorinated carboxylate anion, a fluorinated borate anion, a fluorinated phosphate anion, a fluorinated arsenate anion, a fluorinated antimonate anion, a dicyanamide anion and a bis(oxalato)borate anion. the urethane resin has, between two adjacent urethane bonds, a structure represented by the following structure and at least one structure selected from the group consisting of a structure represented by the following structure and a structure represented by the following structure , and a structure represented by the following structure and at least one structure selected from the group consisting of a structure represented by the following structure and a structure represented by the following structure , and the ion-conductive agent contains at least one anion selected from a fluorinated sulfonylimide anion, a fluorinated sulfonylmethide anion, a fluorinated sulfonate anion, a fluorinated carboxylate anion, a fluorinated borate anion, a fluorinated phosphate anion, a fluorinated arsenate anion, a fluorinated antimonate anion, a dicyanamide anion and a bis(oxalato)borate anion.
A method for arbitrating pixel data for video processing hardware modules in a video pipeline, the method comprising: determining arbitration weights for the video processing hardware modules by: determining a lowest burst length that is associated with a greatest bandwidth between a memory and a video direct memory access module , VDMA module, coupled to the video processing hardware modules , and determining bandwidth characteristics for the video processing hardware modules by transmitting pixel data from the VDMA module to the video processing hardware modules based on the burst length; determining which video processing hardware modules have arbitration weights above a threshold; issuing pixel data from the memory to the video processing hardware modules with arbitration weights above the threshold; decrementing arbitration weights for video processing hardware modules for which pixel data is issued; and repeating the determining, issuing, and decrementing until no video processing hardware modules have arbitration weights above the threshold. determining arbitration weights for the video processing hardware modules by: determining a lowest burst length that is associated with a greatest bandwidth between a memory and a video direct memory access module , VDMA module, coupled to the video processing hardware modules , and determining bandwidth characteristics for the video processing hardware modules by transmitting pixel data from the VDMA module to the video processing hardware modules based on the burst length; determining a lowest burst length that is associated with a greatest bandwidth between a memory and a video direct memory access module , VDMA module, coupled to the video processing hardware modules , and determining bandwidth characteristics for the video processing hardware modules by transmitting pixel data from the VDMA module to the video processing hardware modules based on the burst length; determining which video processing hardware modules have arbitration weights above a threshold; issuing pixel data from the memory to the video processing hardware modules with arbitration weights above the threshold; decrementing arbitration weights for video processing hardware modules for which pixel data is issued; and repeating the determining, issuing, and decrementing until no video processing hardware modules have arbitration weights above the threshold.
A method of switching power modes for a projected capacitive touchscreen having a stack-up which comprises a piezoelectric layer , a plurality of transmitter channels and a plurality of receiver channels , wherein the plurality of transmitter channels and the plurality of receiver channels form a touch sensing grid, the method comprising: activating a touch detect mode ; monitoring at least one channel of the touch screen while in touch detect mode , comprising monitoring an amount of charge on the at least one channel ; determining that a touch event has occurred based on the monitoring of the at least one channel ; and, transitioning, using a switch , from the touch detect mode to a scan mode in response to determining that the touch event has occurred; wherein in the scan mode a driver circuit applies a voltage to the transmitter channels in order to measure the capacitances of each intersection of the plurality of transmitter channels and the plurality of receiver channels ; wherein in the touch detect mode the driver circuit applies no voltage to the transmitter channels . activating a touch detect mode ; monitoring at least one channel of the touch screen while in touch detect mode , comprising monitoring an amount of charge on the at least one channel ; determining that a touch event has occurred based on the monitoring of the at least one channel ; and, transitioning, using a switch , from the touch detect mode to a scan mode in response to determining that the touch event has occurred; wherein in the scan mode a driver circuit applies a voltage to the transmitter channels in order to measure the capacitances of each intersection of the plurality of transmitter channels and the plurality of receiver channels ; wherein in the touch detect mode the driver circuit applies no voltage to the transmitter channels .
A method of determining a position of a User Equipment, UE , in a wireless communication system, comprising: receiving, from a location server , system information including information on a reference cell for observed time difference of arrival, OTDOA, and information on a neighbor cell for the OTDOA, wherein the information on the reference cell includes a first positioning reference signal, PRS, configuration index indicating when PRS of the reference cell is transmitted, and the information on the neighbor cell includes a second PRS configuration index indicating when PRS of the neighbor cell is transmitted; receiving the PRS of the reference cell and the PRS of the neighbor cell based on the system information; and transmitting reference signal time difference, RSTD, measured using the PRS of the reference cell and the PRS of the neighbor cell; characterised in that the system information comprises information on a cell, for which the UE can obtain a system frame number, SFN, as the reference cell or the neighbor cell. receiving, from a location server , system information including information on a reference cell for observed time difference of arrival, OTDOA, and information on a neighbor cell for the OTDOA, wherein the information on the reference cell includes a first positioning reference signal, PRS, configuration index indicating when PRS of the reference cell is transmitted, and the information on the neighbor cell includes a second PRS configuration index indicating when PRS of the neighbor cell is transmitted; receiving the PRS of the reference cell and the PRS of the neighbor cell based on the system information; and transmitting reference signal time difference, RSTD, measured using the PRS of the reference cell and the PRS of the neighbor cell; characterised in that the system information comprises information on a cell, for which the UE can obtain a system frame number, SFN, as the reference cell or the neighbor cell.
A method for traffic engineering, TE, in a software defined network, SDN, the method comprising: receiving , by a TE component, first TE information from a core network component in a core network; receiving , by the TE component, second TE information from a radio access network, RAN, component in a RAN; and transmitting , by the TE component, a TE decision to at least one node in the SDN, wherein the TE decision is determined according to the first TE information and the second TE information, and the TE decision comprises at least one end-to-end path solution. receiving , by a TE component, first TE information from a core network component in a core network; receiving , by the TE component, second TE information from a radio access network, RAN, component in a RAN; and transmitting , by the TE component, a TE decision to at least one node in the SDN, wherein the TE decision is determined according to the first TE information and the second TE information, and the TE decision comprises at least one end-to-end path solution.
Folding-out device for folding outwards a folded packaging portion of an item of packaging , in particular a pouch, for an object , in particular a pharmaceutical or cosmetic object, wherein the folding-out device has a transportation installation for transporting the object in a transportation direction , wherein the folded packaging portion is arranged on an end side (28', 28") of the packaging and extends onto a longitudinal side facing to or facing away from the transport device , characterized in that the folding-out device further includes a lifting installation for raising the object , a holding installation for holding a region of the item of packaging that is adjacent to the packaging portion , and a holding-installation drive installation for moving the holding installation in a direction that points away from the packaging portion , wherein the holding installation is movable parallel with the transportation direction in order for the packaging portion to be folded outwards, wherein the holding-installation drive installation is configured for moving the holding installation parallel with the transportation direction .