mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: a drift region; a Schottky contact on a surface of the drift region; an edge termination structure in the drift region adjacent the Schottky contact, wherein the edge termination structure comprises a recessed region that is recessed from the surface of the drift region by a distance d, the recessed region defining a mesa including the surface as a mesa surface that is vertically offset from a floor of the recessed region: a guard ring in an edge of the mesa surface; a plurality of floating guard rings in the recessed region; and a sidewall in the drift region between the Schottky contact and the recessed region, and wherein a first floating guard ring of the plurality of floating guard rings is located at a base of the recessed region adjacent the sidewall; a lightly doped region that extends across the recessed region between adjacent ones of the plurality of floating guard rings, wherein the lightly doped region, the guard ring in the mesa surface, and the plurality of floating guard rings have a second conductivity that is opposite a first conductivity of the drift region, and wherein the lightly doped region has a depth less than a depth of the plurality of floating guard rings and a doping concentration lower than a doping concentration of the plurality of floating guard rings. a drift region; a Schottky contact on a surface of the drift region; an edge termination structure in the drift region adjacent the Schottky contact, wherein the edge termination structure comprises a recessed region that is recessed from the surface of the drift region by a distance d, the recessed region defining a mesa including the surface as a mesa surface that is vertically offset from a floor of the recessed region: a guard ring in an edge of the mesa surface; a plurality of floating guard rings in the recessed region; and a sidewall in the drift region between the Schottky contact and the recessed region, and wherein a first floating guard ring of the plurality of floating guard rings is located at a base of the recessed region adjacent the sidewall; a lightly doped region that extends across the recessed region between adjacent ones of the plurality of floating guard rings, wherein the lightly doped region, the guard ring in the mesa surface, and the plurality of floating guard rings have a second conductivity that is opposite a first conductivity of the drift region, and wherein the lightly doped region has a depth less than a depth of the plurality of floating guard rings and a doping concentration lower than a doping concentration of the plurality of floating guard rings.
Circuit arrangement comprising - a printed circuit board, - at least one micro-mirror component connected to the printed circuit board for modulating a light beam of a light source directed onto the micro-mirror component, - a heat sink thermally connected to the at least one micro mirror component, and - a current control unit, the micro-mirror component being assigned a heating element which can be controlled by means of the current control unit and is thermally connected to the micro-mirror component, characterised in that the current control unit for driving the heating element is electrically connected to the latter, the current control unit also being connected to the micro-mirror component via a thermal connection to the heat sink for transmitting heat loss occurring at the current control unit. - a printed circuit board, - at least one micro-mirror component connected to the printed circuit board for modulating a light beam of a light source directed onto the micro-mirror component, - a heat sink thermally connected to the at least one micro mirror component, and - a current control unit,
A vehicle suspension for supporting the body or chassis of a vehicle, said suspension comprising two suspension arms (5,6) for positioning respectively at opposite sides and at one end of a vehicle and two suspension arms (7,8) for positioning respectively at opposite sides and at the other end of a vehicle, each said arm being mounted for pivotal movement about a respective hinge axis, wherein the suspension further comprises a balancing hub for attachment to the vehicle body or chassis in a configuration in which at least one part of the balancing hub is free to rotate relative to the vehicle body or chassis about at least one pivotal position the rotational axis of which is vertical, each suspension arm being connected to the balancing hub at a position of the suspension arm spaced from a respective hinge axis of the suspension arm whereby pivotal movement of the suspension arm applies a force to the balancing hub and wherein, in use, said force opposes the force from another suspension arm at at least one of the same side and the same end of the vehicle suspension, wherein, in use, vertical movement of one suspension arm induces an opposite vertical movement of another suspension arm which is at the same side of the vehicle and another suspension arm which is at the same end of the vehicle, wherein each said suspension arm is connected to the balancing hub by a link which extends from the balancing hub to a position of the suspension arm spaced from the hinge axis of the suspension arm, and characterized in that said link is a compressible link comprising a resilient member.
A method, comprising: employing a data processor to execute instructions for managing a dynamic mobile coupon, the instructions causing the data processor to: assign the dynamic mobile coupon to a target mobile device (212, 214); and establish an initial state of a variable characteristic of the dynamic mobile coupon based on a factor pertinent to the target mobile device (212, 214) or a user account related to such device; employing a communication interface to obtain data pertinent to the dynamic mobile coupon; employing the data processor to manage a state of a dynamic mobile coupon account associated with the target mobile device (212, 214) based on the data pertinent to the dynamic mobile coupon; and suspending variability of the characteristic if the data processor exceeds a processing load threshold associated with professing dynamic mobile coupon characteristics. employing a data processor to execute instructions for managing a dynamic mobile coupon, the instructions causing the data processor to: assign the dynamic mobile coupon to a target mobile device (212, 214); and establish an initial state of a variable characteristic of the dynamic mobile coupon based on a factor pertinent to the target mobile device (212, 214) or a user account related to such device; assign the dynamic mobile coupon to a target mobile device (212, 214); and establish an initial state of a variable characteristic of the dynamic mobile coupon based on a factor pertinent to the target mobile device (212, 214) or a user account related to such device; employing a communication interface to obtain data pertinent to the dynamic mobile coupon; employing the data processor to manage a state of a dynamic mobile coupon account associated with the target mobile device (212, 214) based on the data pertinent to the dynamic mobile coupon; and suspending variability of the characteristic if the data processor exceeds a processing load threshold associated with professing dynamic mobile coupon characteristics.
A press for processing parts of the type comprising: - a support for parts to be processed; - a sliding member which can be moved transversely to said support; and - a swivelling press head which is jointed to said sliding member by means of at least one annular spherical joint, said head being intended to be applied to said part support by movement of said sliding member, wherein said sliding member and said press head comprise respective complementary means (9A, 9B) cooperating directly with each other, in order to form a central spherical joint being associated with said annular spherical joint in order to allow for the pivoting of said press head; characterised in that the annular spherical joint is formed by a female portion which adjustably cooperates with a male portion, the female portion being in the form of a ring with a concave spherical internal bearing which is mounted on the sliding member, the male portion is in the form of an annulus with a convex spherical external bearing which is mounted on the press head; wherein the complementary means comprise a female portion and a male portion adjustably cooperating with each other, the male portion being formed by a spherical stud, which is mounted on the press head, and the female portion being in the form of a recess with a spherical bottom arranged in the tip of the sliding member turned to the support, the spherical stud engaging in the recess in order to form the central spherical joint. - a support for parts to be processed; - a sliding member which can be moved transversely to said support; and - a swivelling press head which is jointed to said sliding member by means of at least one annular spherical joint, said head being intended to be applied to said part support by movement of said sliding member,
An image interpretation support apparatus comprising: a reception unit that receives a selection instruction of a location on one two-dimensional standard image having information on a breast; an acquisition unit that acquires information on a corresponding tomographic plane corresponding to a selected location, which is the location of the selection instruction received by the reception unit, among a plurality of tomographic planes of the breast, the corresponding tomographic plane being specified on the basis of a plurality of tomographic images in the plurality of tomographic planes obtained by tomosynthesis imaging of the breast; a detection unit that detects a type of a structure shown in the selected location; a generation unit (55, 151) that generates a schema diagram of the breast with a mark indicating the selected location on the basis of the information on the corresponding tomographic plane acquired by the acquisition unit, wherein the generation unit (55, 151) changes the mark in the schema diagram in accordance with the type detected by the detection unit and according to the correspondence of the mark to the type of the structure, and wherein the two-dimensional standard image is a simple image obtained by performing simple imaging of the breast, or a composite image generated based on the plurality of tomographic images. a reception unit that receives a selection instruction of a location on one two-dimensional standard image having information on a breast; an acquisition unit that acquires information on a corresponding tomographic plane corresponding to a selected location, which is the location of the selection instruction received by the reception unit, among a plurality of tomographic planes of the breast, the corresponding tomographic plane being specified on the basis of a plurality of tomographic images in the plurality of tomographic planes obtained by tomosynthesis imaging of the breast; a detection unit that detects a type of a structure shown in the selected location; a generation unit (55, 151) that generates a schema diagram of the breast with a mark indicating the selected location on the basis of the information on the corresponding tomographic plane acquired by the acquisition unit, wherein the generation unit (55, 151) changes the mark in the schema diagram in accordance with the type detected by the detection unit and according to the correspondence of the mark to the type of the structure, and wherein the two-dimensional standard image is a simple image obtained by performing simple imaging of the breast, or a composite image generated based on the plurality of tomographic images.
A method for offloading non-voice traffic, the method comprising: receiving, at a user equipment, UE, not supporting Voice over LTE, VoLTE, and being connected to an Evolved Universal Terrestrial Radio Access Network, E-UTRAN, policy for priority/preference for an access network, ISRP, from an Access Network Discovery and Selection Function, ANDSF, wherein the policy is set in order of the E-UTRAN > a wireless local area network, WLAN, > a UTRAN for an affected IP traffic by a Circuit-Switched Fall-Back, CSFB; progressing, by the UE, a data traffic through an eNodeB, eNB, of the E-UTRAN; sending, by the UE, an extended service request message to a Mobility Management Entity, MME; receiving, by the UE, a CCO/NACC message, sent by the eNB in order to notify the CSFB; determining, by the UE, based on the policy to offload the data traffic to the WLAN; running, by the UE, a timer; offloading, by the UE, the data traffic onto the WLAN; returning, by the UE, to the E-UTRAN, after the call is terminated; and performing, by the UE, a handover procedure for transferring the data traffic offloaded onto the WLAN to the E-UTRAN according to the policy when the timer expires. receiving, at a user equipment, UE, not supporting Voice over LTE, VoLTE, and being connected to an Evolved Universal Terrestrial Radio Access Network, E-UTRAN, policy for priority/preference for an access network, ISRP, from an Access Network Discovery and Selection Function, ANDSF, wherein the policy is set in order of the E-UTRAN > a wireless local area network, WLAN, > a UTRAN for an affected IP traffic by a Circuit-Switched Fall-Back, CSFB; progressing, by the UE, a data traffic through an eNodeB, eNB, of the E-UTRAN; sending, by the UE, an extended service request message to a Mobility Management Entity, MME; receiving, by the UE, a CCO/NACC message, sent by the eNB in order to notify the CSFB; determining, by the UE, based on the policy to offload the data traffic to the WLAN; running, by the UE, a timer; offloading, by the UE, the data traffic onto the WLAN; returning, by the UE, to the E-UTRAN, after the call is terminated; and performing, by the UE, a handover procedure for transferring the data traffic offloaded onto the WLAN to the E-UTRAN according to the policy when the timer expires.
A road surfacing reinforcement of the cold surface dressing type comprising at least one bonding binder layer and an aggregate layer, said reinforcement being intended for being deposited on said bonding binder layer, said reinforcement comprising - a web-like substrate comprising non-woven polyolefin synthetic fibres; said web-like substrate being permeable to said bonding binder; and - a mat consisting of high-tenacity fibres; the fibres constituting the mat being selected from the group consisting of carbon fibers, basalt fibers, glass fibers, said fibres being intended for receiving the aggregate layer; said reinforcement being not provided with means for attaching the mat to the substrate. - a web-like substrate comprising non-woven polyolefin synthetic fibres; said web-like substrate being permeable to said bonding binder; and - a mat consisting of high-tenacity fibres; the fibres constituting the mat being selected from the group consisting of carbon fibers, basalt fibers, glass fibers, said fibres being intended for receiving the aggregate layer;
A sensor, comprising a resonator unit, the resonator unit comprising an acoustic resonator for containing a fluid, the acoustic resonator being operable to support standing acoustic waves, the resonator unit being operable to convert an electrical excitation signal into an acoustic signal in the acoustic resonator to establish the standing acoustic waves and operable to convert the acoustic signal in the acoustic resonator into an electrical response signal, and an electronic unit coupled to the resonator unit, the electronic unit being operable to provide the electrical excitation signal to the resonator unit and to receive the electrical response signal from the resonator unit, to process the electrical excitation signal and the electrical response signal to determine an acoustic signal response, wherein the electronic unit is operable to determine a resonant frequency (f r) of the standing acoustic waves from the acoustic signal response, and to determine the temperature of the fluid in the acoustic resonator from the resonant frequency (f r) and a value of the speed of flow (u a) of the fluid through the acoustic resonator in a secondary direction perpendicular to the standing acoustic waves.
Method for scanning a location, having the following features: - an intrinsic speed of a vehicle is measured at predetermined points in time and a counter is incremented as a function of the intrinsic speed, wherein a weighting factor is determined as a function of the intrinsic speed and the counter is incremented as a function of the weighting factor, and - as soon as the counter reaches a predetermined threshold value (13, Y), the location of the vehicle is determined characterized by the following features: - the intrinsic speed is assigned a speed interval among a plurality of predetermined speed intervals which includes the intrinsic speed, and - the weighting factor is read from a conversion table by using the associated speed interval. having the following features: - an intrinsic speed of a vehicle is measured at predetermined points in time and a counter is incremented as a function of the intrinsic speed, wherein a weighting factor is determined as a function of the intrinsic speed and the counter is incremented as a function of the weighting factor, and - as soon as the counter reaches a predetermined threshold value (13, Y), the location of the vehicle is determined - an intrinsic speed of a vehicle is measured at predetermined points in time and a counter is incremented as a function of the intrinsic speed, wherein a weighting factor is determined as a function of the intrinsic speed and the counter is incremented as a function of the weighting factor, and - as soon as the counter reaches a predetermined threshold value (13, Y), the location of the vehicle is determined characterized by the following features: - the intrinsic speed is assigned a speed interval among a plurality of predetermined speed intervals which includes the intrinsic speed, and - the weighting factor is read from a conversion table by using the associated speed interval. - the intrinsic speed is assigned a speed interval among a plurality of predetermined speed intervals which includes the intrinsic speed, and - the weighting factor is read from a conversion table by using the associated speed interval.
Process for producing a foam body having an internal structure (100, 200, 300), comprising the steps of: I) selecting an internal structure (100, 200, 300) to be formed in the foam body, wherein the structure comprises a first polymeric material; II) providing a foam body, wherein the foam body comprises a second polymeric material distinct from the first polymeric material; III) injecting by means of an injection means a predetermined amount of a melt of the first polymeric material or a predetermined amount of a reaction mixture (30, 21, 32) which reacts to afford the first polymeric material at a predetermined location inside the foam body which corresponds to a volume element of the internal structure (100, 200, 300); IV) repeating step III) for further predetermined locations inside the foam body corresponding to further volume elements of the internal structure until the internal structure is formed, wherein the injecting in step III) is not carried out into cavities already present in the foam of the foam body and corresponding to the shape of the volume element or the internal structure (100, 200, 300). I) selecting an internal structure (100, 200, 300) to be formed in the foam body, wherein the structure comprises a first polymeric material; II) providing a foam body, wherein the foam body comprises a second polymeric material distinct from the first polymeric material; III) injecting by means of an injection means a predetermined amount of a melt of the first polymeric material or a predetermined amount of a reaction mixture (30, 21, 32) which reacts to afford the first polymeric material at a predetermined location inside the foam body which corresponds to a volume element of the internal structure (100, 200, 300); IV) repeating step III) for further predetermined locations inside the foam body corresponding to further volume elements of the internal structure until the internal structure is formed,
A composition comprising a RNAi agent specific to HSF1, comprising a first strand and a second strand, wherein the first strand comprises SEQ ID NO: 173, and said first strand is no more than 30 nucleotides long.
A card printer, comprising: a drop-on-demand print station that includes at least one drop-on-demand print head (36a-e); a card transport (44a, 44b) that is configured to transport the card to a printing position underneath the at least one drop-on-demand print head; characterized in that the card printer comprises a tray mounted on the card transport so that the tray is positioned under the card during printing on the card by the at least one drop-on-demand print head and the tray projects beyond at least one edge of the card, and the tray is able to collect any ink that oversprays the at least one edge; the card is mounted on the card transport (44a, 44b) a distance above the tray whereby the card is not in direct physical contact with the tray. a drop-on-demand print station that includes at least one drop-on-demand print head (36a-e); a card transport (44a, 44b) that is configured to transport the card to a printing position underneath the at least one drop-on-demand print head; characterized in that the card printer comprises a tray mounted on the card transport so that the tray is positioned under the card during printing on the card by the at least one drop-on-demand print head and the tray projects beyond at least one edge of the card, and the tray is able to collect any ink that oversprays the at least one edge; the card is mounted on the card transport (44a, 44b) a distance above the tray whereby the card is not in direct physical contact with the tray.
Mat for covering a useable surface in the driver's cab of an agricultural vehicle, wherein the mat comprises at least one surface section (6, 7) delimited by a material-weakened margin, wherein the surface section (6, 7) can be removed in order to expose a passage through the mat for fastening a functional object on the useable surface, characterised in that the material-weakened margin is formed as notching in the flat material of the mat, and that additionally to the notch one single hole is provided in the breaking edge, which passes through the material of the mat, wherein the hole facilitates the removal of the surface section (6, 7) in that it predetermines the start of a desired breakage.
A transponder module comprising a chip module disposed on an antenna module, with a chip and a chip carrier featuring a strip-shaped carrier substrate, the chip being electrically contacted with a chip contact arrangement which is located at a distance from longitudinal ends (25, 26) of the carrier substrate and is disposed between antenna contact surfaces (27, 28), such that the terminal faces of the chip are directly connected to the chip contact arrangement in an electrically conductive manner, wherein the chip contact arrangement and the antenna contact surfaces are located on an application surface of the chip carrier and at least one insulation surface is formed on the application surface between the chip contact arrangement and the antenna contact surfaces, characterised in that the antenna module comprises an antenna disposed on an antenna side of an antenna substrate, the contact surfaces (49, 50) of the antenna at least partially extending over contact recesses formed in the antenna substrate, wherein the chip module is disposed on an opposite side of the antenna substrate facing the antenna side, such that the antenna contact surfaces of the chip module are contacted with contact surface back sides (56, 57) of the contact surfaces in an electrically conductive manner and the chip engages with a window opening formed in the antenna substrate.