mhurhangee/patent-ind-claim-en huggingface dataset:
A carbon fibre boom structure for an agricultural sprayer boom , said boom structure comprising: - an elongated upper carbon fibre tube , - at least one elongated lower carbon fibre tube and - a carbon fibre/resin matrix uniting structure bonded to each of said carbon fibre tubes to hold the tubes in a spaced apart position; the carbon fibre boom structure being characterised in that said uniting structure is formed in a winding operation by applying windings of a carbon fibre string with a liquid resin around portions of said tubes , said windings and resin matrix define an inner primary layer and an outer primary layer of said uniting structure , wherein a portion of said inner primary layer is bonded to a surface portion of each tube that is oriented towards the inside of the uniting structure while a portion of said outer primary layer is bonded to a remaining surface portion of each tube to completely, or essentially completely, envelope each tube by the said portions of said two primary layers . - an elongated upper carbon fibre tube , - at least one elongated lower carbon fibre tube and - a carbon fibre/resin matrix uniting structure bonded to each of said carbon fibre tubes to hold the tubes in a spaced apart position; said uniting structure is formed in a winding operation by applying windings of a carbon fibre string with a liquid resin around portions of said tubes , said windings and resin matrix define an inner primary layer and an outer primary layer of said uniting structure , wherein a portion of said inner primary layer is bonded to a surface portion of each tube that is oriented towards the inside of the uniting structure while a portion of said outer primary layer is bonded to a remaining surface portion of each tube to completely, or essentially completely, envelope each tube by the said portions of said two primary layers .
A microphone, comprising a metal cover and a printed circuit board, PCB, that is connected to the metal cover and that is provided with a sound pickup hole , and further comprising a boss that is provided with a through hole , wherein the boss is disposed on a side, away from the metal cover , of the PCB , and the boss is located on a soldering pad surrounding the sound pickup hole , so as to prevent soldering tin and a solder flux from entering the sound pickup hole ; and the through hole is in communication with the sound pickup hole , so that an audio signal enters the sound pickup hole through the through hole characterized in that the boss is interference-fitted into the sound pickup hole , so that the boss is riveted on the PCB .
A connector for fastening and dismantling a load to or from, respectively, a belt , selected from a lumbar-belt; a tac-vest; a back-belt; a weightlifting-belt; and a firefighters-belt, that can be worn by a carrier comprising: a buckle male having a rounded buckle bolt configured for swift fastening the load to the belt; and a buckle configured for swift dismantling the load from the belt using one hand of the carrier, characterized in that the round shape of the buckle bolt allows it to freely rotate around an axis inside the buckle , and the buckle and the buckle male are configured to be connected by driving the buckle bolt into a receptacle of the buckle along said axis , whereby a first latch and a second latch of the buckle are spread open sideways against a spring force, which urges them in a close position, for allowing the buckle bolt to fully penetrate into receptacle , and locking the buckle bolt by returning to thereby engage a groove formed on the buckle bolt, thus locking the buckle and the buckle male together by hugging the entire circumference of the buckle bolt with the first and second latch . a buckle male having a rounded buckle bolt configured for swift fastening the load to the belt; and a buckle configured for swift dismantling the load from the belt using one hand of the carrier, characterized in that the round shape of the buckle bolt allows it to freely rotate around an axis inside the buckle , and the buckle and the buckle male are configured to be connected by driving the buckle bolt into a receptacle of the buckle along said axis , whereby a first latch and a second latch of the buckle are spread open sideways against a spring force, which urges them in a close position, for allowing the buckle bolt to fully penetrate into receptacle , and locking the buckle bolt by returning to thereby engage a groove formed on the buckle bolt, thus locking the buckle and the buckle male together by hugging the entire circumference of the buckle bolt with the first and second latch .
An intraocular lens assembly adapted to be inserted into an eyeball, the assembly comprising: an intraocular lens support body configured in a shape of a ring adapted to be inserted into a capsular sac of an eyeball, an outer circumferential surface of the intraocular lens support body , which is adapted to contact the capsular sac, including a first front contact portion that is adapted to contact a front portion of the capsular sac and a first rear contact portion that is adapted to contact a rear portion of the capsular sac, and an inner circumferential surface of the intraocular lens support body , which faces away from the outer circumferential surface , including a second front contact portion that faces away from the first front contact portion and a second rear contact portion that faces away from the first rear contact portion ; a connection means including a third front contact portion , which contacts at least one section of the second front contact portion , a third rear contact portion , which contacts at least one section of the second rear contact portion , and a deformation facilitating groove , which is provided between the third front contact portion and the third rear contact portion ; and an intraocular lens connected to the connection means characterized in that a space is formed between the deformation facilitating groove and the inner circumferential surface . an intraocular lens support body configured in a shape of a ring adapted to be inserted into a capsular sac of an eyeball, an outer circumferential surface of the intraocular lens support body , which is adapted to contact the capsular sac, including a first front contact portion that is adapted to contact a front portion of the capsular sac and a first rear contact portion that is adapted to contact a rear portion of the capsular sac, and an inner circumferential surface of the intraocular lens support body , which faces away from the outer circumferential surface , including a second front contact portion that faces away from the first front contact portion and a second rear contact portion that faces away from the first rear contact portion ; a connection means including a third front contact portion , which contacts at least one section of the second front contact portion , a third rear contact portion , which contacts at least one section of the second rear contact portion , and a deformation facilitating groove , which is provided between the third front contact portion and the third rear contact portion ; and an intraocular lens connected to the connection means characterized in that a space is formed between the deformation facilitating groove and the inner circumferential surface .
An apparatus comprising: (a) an electroporation catheter that comprises (i) a balloon structure that comprises an interior chamber and is permeable to a calcium-ion-containing solution that comprises one or more calcium salts, and (ii) an elongate body having a proximal end and a distal end, wherein the balloon structure is positioned at the distal end of the elongate body ; and (b) one or more first containers containing (i) the calcium-ion-containing solution or (ii) the one or more calcium salts in dry form, which produces the calcium-ion-containing solution upon mixing with a liquid carrier. (a) an electroporation catheter that comprises (i) a balloon structure that comprises an interior chamber and is permeable to a calcium-ion-containing solution that comprises one or more calcium salts, and (ii) an elongate body having a proximal end and a distal end, wherein the balloon structure is positioned at the distal end of the elongate body ; and (b) one or more first containers containing (i) the calcium-ion-containing solution or (ii) the one or more calcium salts in dry form, which produces the calcium-ion-containing solution upon mixing with a liquid carrier.
Method for generating magnetic resonance recordings of an examination object (O) in a magnetic resonance tomography device , having the following steps: - acquisition of magnetic resonance raw data (RD1, RD2), wherein first magnetic resonance raw data (RD1) is acquired in a first recording region (B1 2D , B1 3D ) inside a homogeneity volume (SHV) of the magnetic resonance tomography device in a k-space and second magnetic resonance raw data (RD2) is acquired in a second recording region (B2 2D , B2 3D ) outside the homogeneity volume (SHV) of the magnetic resonance tomography device using a signal encoding function which is not present in the form of a conventional Fourier integral and is therefore not acquired in a k-space, - reconstruction of first image data (BD1) on the basis of the first magnetic resonance raw data (RD1) and reconstruction of second image data (BD2) on the basis of the second magnetic resonance raw data (RD2), wherein - the first image data (BD1) is reconstructed on the basis of the first magnetic resonance raw data (RD1) by means of a Fourier transform (FFT) and - the second image data (BD2) is reconstructed on the basis of the second magnetic resonance raw data (RD2) by a signal model-based image reconstruction method (SMR) - combination of the first image data (BD1) and the second image data (BD2) to form combination image data (BDK) which covers a region which extends in the first recording region (B1 2D , B1 3D ) and the second recording region (B2 2D , B2 3D ), wherein at least before an acquisition of the second magnetic resonance raw data (RD2) a magnetic field distribution and a magnetic field distribution of the gradient non-linearity is determined at least in the second recording region (B2 2D , B2 3D ). - acquisition of magnetic resonance raw data (RD1, RD2), wherein first magnetic resonance raw data (RD1) is acquired in a first recording region (B1 2D , B1 3D ) inside a homogeneity volume (SHV) of the magnetic resonance tomography device in a k-space and second magnetic resonance raw data (RD2) is acquired in a second recording region (B2 2D , B2 3D ) outside the homogeneity volume (SHV) of the magnetic resonance tomography device using a signal encoding function which is not present in the form of a conventional Fourier integral and is therefore not acquired in a k-space, - reconstruction of first image data (BD1) on the basis of the first magnetic resonance raw data (RD1) and reconstruction of second image data (BD2) on the basis of the second magnetic resonance raw data (RD2), wherein - the first image data (BD1) is reconstructed on the basis of the first magnetic resonance raw data (RD1) by means of a Fourier transform (FFT) and - the second image data (BD2) is reconstructed on the basis of the second magnetic resonance raw data (RD2) by a signal model-based image reconstruction method (SMR) - combination of the first image data (BD1) and the second image data (BD2) to form combination image data (BDK) which covers a region which extends in the first recording region (B1 2D , B1 3D ) and the second recording region (B2 2D , B2 3D ),
A method, performed by a base station part of a GSM/EDGE Radio Access Network, GERAN, of providing traffic classification for a data traffic flow, related to a General Packet Radio Service, GPRS, or Enhanced General Packet Radio Service, EGPRS, wherein said method comprises the steps of: - said base station receiving (S11), for said data traffic flow, a traffic-class-based network layer Quality of Service, QoS, attribute for traffic prioritization from a base station controller or a network support node, wherein said traffic-class-based network layer QoS attribute is understandable on a network layer and based on traffic class information representative of a traffic class of an end-user application of an associated mobile station; - said base station storing (S12) the received traffic-class-based network layer QoS attribute; - said base station subsequently retrieving (S13) the stored traffic-class-based network layer QoS attribute; and - said base station including (S2) the retrieved traffic-class-based network layer QoS attribute in data packets of said data traffic flow to provide network-layer traffic classification for said data traffic flow, wherein said traffic-class-based network layer QoS attribute includes a DiffServ Code Point, DSCP, value. - said base station receiving (S11), for said data traffic flow, a traffic-class-based network layer Quality of Service, QoS, attribute for traffic prioritization from a base station controller or a network support node, wherein said traffic-class-based network layer QoS attribute is understandable on a network layer and based on traffic class information representative of a traffic class of an end-user application of an associated mobile station; - said base station storing (S12) the received traffic-class-based network layer QoS attribute; - said base station subsequently retrieving (S13) the stored traffic-class-based network layer QoS attribute; and - said base station including (S2) the retrieved traffic-class-based network layer QoS attribute in data packets of said data traffic flow to provide network-layer traffic classification for said data traffic flow,
An apparatus , comprising: a primary unit configured to receive power from a first power source, and wherein the primary unit is configured with a user-controlled power controller used for setting a primary power state of the primary unit , and further configured with an actuator, wherein the actuator is coupled to the user-controlled power controller; and a secondary unit configured to receive power from a second power source, and further configured to be detachable from the primary unit , wherein, when the secondary unit is attached to the primary unit , the actuator coordinates the secondary power state of the secondary unit with the primary power state of the primary unit ; and wherein: the actuator is a magnetic actuator in the primary unit , and the magnetic actuator controls a magnetic switch in the secondary unit between a secondary power source and electronics in the secondary unit ; or the actuator is a non-conductive actuator in the primary unit , and the non-conductive actuator controls a switch in the secondary unit between a secondary power source and electronics in the secondary unit . a primary unit configured to receive power from a first power source, and wherein the primary unit is configured with a user-controlled power controller used for setting a primary power state of the primary unit , and further configured with an actuator, wherein the actuator is coupled to the user-controlled power controller; and a secondary unit configured to receive power from a second power source, and further configured to be detachable from the primary unit , wherein, when the secondary unit is attached to the primary unit , the actuator coordinates the secondary power state of the secondary unit with the primary power state of the primary unit ; and wherein: the actuator is a magnetic actuator in the primary unit , and the magnetic actuator controls a magnetic switch in the secondary unit between a secondary power source and electronics in the secondary unit ; or the actuator is a non-conductive actuator in the primary unit , and the non-conductive actuator controls a switch in the secondary unit between a secondary power source and electronics in the secondary unit . the actuator is a magnetic actuator in the primary unit , and the magnetic actuator controls a magnetic switch in the secondary unit between a secondary power source and electronics in the secondary unit ; or the actuator is a non-conductive actuator in the primary unit , and the non-conductive actuator controls a switch in the secondary unit between a secondary power source and electronics in the secondary unit .
A display system for a vehicle, comprising a capturing unit for capturing image data of the vehicle environment, a calculation unit , and a display unit for displaying an image to be displayed with an image portion , wherein the calculation unit is adapted to carry out a modification of the image data captured by the capturing unit and to supply the modified image data to the display unit for display, wherein the modification includes overlaying or superimposing an overlay portion on the image portion of the image to be displayed, the overlay portion being located within or directly adjacent to the image portion , wherein the image portion further includes a measuring portion where a graphical image characteristic of the image portion is acquired through image analysis with regard to graphic characteristic, and wherein the calculation unit is adapted to set a graphical overlay portion characteristic dependent on the acquired graphical image characteristic, and wherein the calculation unit is adapted to determine the overlay portion characteristic time-delayed with regard to the acquisition of the image characteristic of the image portion, if a certain characteristic of the image portion is present over a certain period of time. a capturing unit for capturing image data of the vehicle environment, a calculation unit , and a display unit for displaying an image to be displayed with an image portion , wherein the calculation unit is adapted to carry out a modification of the image data captured by the capturing unit and to supply the modified image data to the display unit for display, wherein the modification includes overlaying or superimposing an overlay portion on the image portion of the image to be displayed, the overlay portion being located within or directly adjacent to the image portion , wherein the image portion further includes a measuring portion where a graphical image characteristic of the image portion is acquired through image analysis with regard to graphic characteristic, and wherein the calculation unit is adapted to set a graphical overlay portion characteristic dependent on the acquired graphical image characteristic, and wherein the calculation unit is adapted to determine the overlay portion characteristic time-delayed with regard to the acquisition of the image characteristic of the image portion, if a certain characteristic of the image portion is present over a certain period of time.
A computer-implemented method for designing, by topology optimization, an additive manufacturable mechanical part, the part having anisotropic properties, the method comprising: - defining (S10) a working volume for the optimization of the part; - defining (S20) at least one boundary condition applied to the part; - computing (S30), by applying an anisotropic free-material optimization to a finite element model, a vector field over the working volume, each vector of the field representing an optimal direction and a quantity of material corresponding to satisfy the at least one boundary condition; - computing (S40) a set of flow lines by propagating from starting points in the vector field; - for each flow line of the set, computing (S50) a primary structure element of the part, thereby obtaining a primary structure, the primary structure following characteristic directions of a material constitutive of the mechanical part; and - computing (S60) a secondary structure of the part linking the set of primary structure elements as well as the secondary structure elements together, the secondary structure stabilizing the primary structure elements, the computing (S50-S60) of the primary structure and of the secondary structure comprising an identification and classification of the orientations of the computed vector field that describe the anisotropic properties of the primary structure elements and the secondary structure elements, the topology of the primary structure elements and the secondary structure elements being optimized for lightweight structural design and for fulfilling structural requirements, wherein the part designed according to the method is adapted to be manufactured by additive manufacturing. - defining (S10) a working volume for the optimization of the part; - defining (S20) at least one boundary condition applied to the part; - computing (S30), by applying an anisotropic free-material optimization to a finite element model, a vector field over the working volume, each vector of the field representing an optimal direction and a quantity of material corresponding to satisfy the at least one boundary condition; - computing (S40) a set of flow lines by propagating from starting points in the vector field; - for each flow line of the set, computing (S50) a primary structure element of the part, thereby obtaining a primary structure, the primary structure following characteristic directions of a material constitutive of the mechanical part; and - computing (S60) a secondary structure of the part linking the set of primary structure elements as well as the secondary structure elements together, the secondary structure stabilizing the primary structure elements,
A method for oxidizing a linear or cyclic saturated hydrocarbon compound with molecular oxygen to produce a ketone and/or an alcohol, comprising: (a) oxidizing the a linear or cyclic saturated hydrocarbon compound at a temperature of 120°C or more and 160°C or less using a serial multistage reacting unit to obtain the corresponding hydroperoxide; (b) decomposing the hydroperoxide by adding an aqueous alkaline solution to obtain the corresponding ketone and alcohol; and (c) transferring the reaction solution obtained by the step (a) to a unit in which the step (b) is carried out; wherein a reacting unit for carrying out at least the final stage reaction in the step (a) and a transferring unit for the step (c) have an inner surface formed by a material from which no transition metal ion is generated. (a) oxidizing the a linear or cyclic saturated hydrocarbon compound at a temperature of 120°C or more and 160°C or less using a serial multistage reacting unit to obtain the corresponding hydroperoxide; (b) decomposing the hydroperoxide by adding an aqueous alkaline solution to obtain the corresponding ketone and alcohol; and (c) transferring the reaction solution obtained by the step (a) to a unit in which the step (b) is carried out;
A method for facilitating simulation of a shot from a weapon, wherein the weapon is equipped with a laser device which works on the time-of-flight principle, the method comprising the steps of: - receiving an emitted coded laser pulse from said weapon by a simulation device; - transferring a returned coded pulse sequence corresponding to said emitted coded laser pulse sequence back to the weapon by said simulation device, characterised in that said simulation device is a range simulation device and in that the method further comprises the step of: - delaying said transferring in relation to said receiving so that said delay is perceived by said weapon as a longer travel time of the emitted coded laser pulse sequence and the returned coded pulse sequence, respectively, wherein said delay is adjustable by an adjusting arrangement comprised in said simulation device. - receiving an emitted coded laser pulse from said weapon by a simulation device; - transferring a returned coded pulse sequence corresponding to said emitted coded laser pulse sequence back to the weapon by said simulation device, - delaying said transferring in relation to said receiving so that said delay is perceived by said weapon as a longer travel time of the emitted coded laser pulse sequence and the returned coded pulse sequence, respectively,