mhurhangee/patent-ind-claim-en huggingface dataset:
A spreader system for an agricultural vehicle, the spreader system comprising: a fixed frame ; a pivot frame ; and a spreader assembly comprising: one or more spreaders mounted to the pivot frame and configured to rotate about a respective spreader axis (As), and a respective spreader drive input drivingly connected to each of the one or more spreaders , a power transmission operatively connecting a pivot shaft drive output to each respective spreader drive input a pivot joint connecting the pivot frame to the fixed frame for pivotal movement relative to the fixed frame about a pivot axis (Ap) between an operation position and a service position, wherein the respective spreader axis (As) of the one or more spreaders is offset radially from said pivot axis (Ap), the pivot joint including a pivot shaft ; and the pivot shaft having a pivot shaft drive input and said pivot shaft drive output , characterized in that the pivot joint including a pivot shaft extends along said pivot axis (Ap) and is configured to rotate about said pivot axis (Ap); and the pivot shaft drive output is spaced along the pivot axis (Ap) from the pivot shaft drive input . a fixed frame ; a pivot frame ; and a spreader assembly comprising: one or more spreaders mounted to the pivot frame and configured to rotate about a respective spreader axis (As), and a respective spreader drive input drivingly connected to each of the one or more spreaders , one or more spreaders mounted to the pivot frame and configured to rotate about a respective spreader axis (As), and a respective spreader drive input drivingly connected to each of the one or more spreaders , a power transmission operatively connecting a pivot shaft drive output to each respective spreader drive input a pivot joint connecting the pivot frame to the fixed frame for pivotal movement relative to the fixed frame about a pivot axis (Ap) between an operation position and a service position, wherein the respective spreader axis (As) of the one or more spreaders is offset radially from said pivot axis (Ap), the pivot joint including a pivot shaft ; and the pivot shaft having a pivot shaft drive input and said pivot shaft drive output , characterized in that the pivot joint including a pivot shaft extends along said pivot axis (Ap) and is configured to rotate about said pivot axis (Ap); and the pivot shaft drive output is spaced along the pivot axis (Ap) from the pivot shaft drive input .
A method of measuring coagulation response in a blood sample, comprising the steps of: a. placing a sample droplet of blood between and in contact with a first surface and a second surface of oppositely disposed glass-filled thermoplastic polymer members , wherein the glass-filled thermoplastic polymer members are optically transparent; b. moving at least one member linearly with respect to the other member at a predetermined speed sufficient to activate platelets through exposure to shear forces; and c. optically detecting, via measurement of mechanical displacement, the interaction between the first and second surfaces resulting from changes in the viscosity of the sample fluid and binding to the member surfaces in order to measure coagulation response of the droplet of blood. a. placing a sample droplet of blood between and in contact with a first surface and a second surface of oppositely disposed glass-filled thermoplastic polymer members , wherein the glass-filled thermoplastic polymer members are optically transparent; b. moving at least one member linearly with respect to the other member at a predetermined speed sufficient to activate platelets through exposure to shear forces; and c. optically detecting, via measurement of mechanical displacement, the interaction between the first and second surfaces resulting from changes in the viscosity of the sample fluid and binding to the member surfaces in order to measure coagulation response of the droplet of blood.
A method performed by a system for controlling a self-propelling lawnmower , the system comprising the self-propelling lawnmower having a control unit and at least one sensor (12; 14; 16), a boundary wire and a signal generator and wherein the self-propelling lawnmower is configured to move across an area (A) surrounded by the boundary wire , characterized by : - encoding (S100), by means of the signal generator , a data frame with a recognition code in an alternating current that is Direct Current, DC-balanced, the recognition code comprising a system code and a loop number code, - randomly transmitting (S102) within a predetermined period of time (T), by means of the signal generator , the data frame in form of a burst to the boundary wire , - receiving (S104), in the self-propelling lawnmower , the randomly transmitted data frame burst , by means of the at least one sensor (12; 14; 16), - decoding (S106), in the control unit , the received data frame to retrieve the recognition code, i.e. the system code and the loop number code, - determining (S108), in the control unit , that the loop number code relates to the boundary wire , - comparing (S110), in the control unit , the decoded system code with a predetermined system code stored in a memory of the control unit , and - determining (S112) that the lawnmower is on the inside of the boundary wire if the decoded system code matches the predetermined system code, or - determining (S114) that the lawnmower is on the outside of the boundary wire if the decoded system code matches the inverse of the predetermined system code. - encoding (S100), by means of the signal generator , a data frame with a recognition code in an alternating current that is Direct Current, DC-balanced, the recognition code comprising a system code and a loop number code, - randomly transmitting (S102) within a predetermined period of time (T), by means of the signal generator , the data frame in form of a burst to the boundary wire , - receiving (S104), in the self-propelling lawnmower , the randomly transmitted data frame burst , by means of the at least one sensor (12; 14; 16), - decoding (S106), in the control unit , the received data frame to retrieve the recognition code, i.e. the system code and the loop number code, - determining (S108), in the control unit , that the loop number code relates to the boundary wire , - comparing (S110), in the control unit , the decoded system code with a predetermined system code stored in a memory of the control unit , and - determining (S112) that the lawnmower is on the inside of the boundary wire if the decoded system code matches the predetermined system code, or - determining (S114) that the lawnmower is on the outside of the boundary wire if the decoded system code matches the inverse of the predetermined system code.
A torque motor for a servovalve, said torque motor comprising: an armature ; a first pole piece having a first portion and a second portion that is selectively moveable relative to the first portion such that a size of an air gap formed between the second portion and the armature is adjusted in response to the movement of the second portion relative to the first portion ; characterised in that the torque motor further comprises a non-magnetic attachment means configured to attach the second portion to the first portion , and wherein the attachment means further comprises a hard stop protruding into the air gap and providing a physical stop to prevent latching of the armature to the second portion . an armature ; a first pole piece having a first portion and a second portion that is selectively moveable relative to the first portion such that a size of an air gap formed between the second portion and the armature is adjusted in response to the movement of the second portion relative to the first portion ; characterised in that the torque motor further comprises a non-magnetic attachment means configured to attach the second portion to the first portion , and wherein the attachment means further comprises a hard stop protruding into the air gap and providing a physical stop to prevent latching of the armature to the second portion .
A system for electro-absorption modulation in an integrated circuit, comprising: a waveguide ; a photodetector configured with respect to the waveguide for providing a photocurrent signal responsive to an optical signal; an electro-absorption modulator configured with respect to the waveguide for electro-absorption modulation of the optical signal, wherein the electro-absorption modulator is a segmented electro-absorption modulator comprising a segmented anode having a plurality of anode segments (111-1, 111-2) spaced apart from one another alongside a first side of the waveguide , and a segmented cathode having a plurality of cathode segments (110-1, 110-2) spaced apart from one another alongside a second side of the waveguide corresponding to the plurality of anode segments (111-1, 111-2), wherein the photodetector is disposed proximate to the electro-absorption modulator between pairs of anode/cathode segments; the photodetector and the electro-absorption modulator being formed of same materials; and an integrated heating element located alongside and spaced apart from both the photodetector and the electro-absorption modulator , the integrated heating element configured for controllably heating the photodetector and the electro-absorption modulator based on the photocurrent signal from the photodetector . a waveguide ; a photodetector configured with respect to the waveguide for providing a photocurrent signal responsive to an optical signal; an electro-absorption modulator configured with respect to the waveguide for electro-absorption modulation of the optical signal, wherein the electro-absorption modulator is a segmented electro-absorption modulator comprising a segmented anode having a plurality of anode segments (111-1, 111-2) spaced apart from one another alongside a first side of the waveguide , and a segmented cathode having a plurality of cathode segments (110-1, 110-2) spaced apart from one another alongside a second side of the waveguide corresponding to the plurality of anode segments (111-1, 111-2), wherein the photodetector is disposed proximate to the electro-absorption modulator between pairs of anode/cathode segments; the photodetector and the electro-absorption modulator being formed of same materials; and an integrated heating element located alongside and spaced apart from both the photodetector and the electro-absorption modulator , the integrated heating element configured for controllably heating the photodetector and the electro-absorption modulator based on the photocurrent signal from the photodetector .
A shoe cover assembly for being assembled on two installation arms of a shoe cover dispenser device , comprising a plurality of shoe covers , wherein: each of the shoe covers comprises a shoe cover main body having a receiving cavity and an elastic opening edge , wherein the shoe cover main body is provided with four joint perforations which are divided into two front joint perforations formed in two front perforation portions and two rear joint perforations formed in two rear perforation portions , wherein the front perforation portions and the rear perforation portions are integral parts of the shoe cover main body defining the boundaries of the front joint perforations and the rear joint perforations , wherein the shoe cover assembly further comprises two connecting rods , wherein each row of the two front perforation portions of a rear shoe cover passes through a row of two rear joint perforations of an adjacent front shoe cover to expose the row of two front joint perforations for each of the connecting rods to pass through the front joint perforations , so that a plurality of the shoe covers is connected and joined by the two connecting rods in series, wherein the two connecting rods pass through the row of the front joint perforations , but do not pass through the row of rear joint perforations .
An apparatus for identifying an aceto-whiteness region in a colposcopic image, said apparatus comprising a computer device comprising the following operations implemented as program code means of a computer program : - a zone identifier for identifying a transformation zone in a colposcopic acetic acid image by registering with a colposcopic iodine counterpart image of said acetic acid image (S200); - an aceto-white identifier for identifying a region with more than a predetermined minimum change in whiteness within said transformation zone and for registering the identified region with said iodine counterpart image (S210, S220); and - a region separator for deciding based on said registration of said identified region with said iodine counterpart image on a type of iodine uptake of said identified region so as to determine if said identified region comprises a premalignant lesion (S230-S260). - a zone identifier for identifying a transformation zone in a colposcopic acetic acid image by registering with a colposcopic iodine counterpart image of said acetic acid image (S200); - an aceto-white identifier for identifying a region with more than a predetermined minimum change in whiteness within said transformation zone and for registering the identified region with said iodine counterpart image (S210, S220); and - a region separator for deciding based on said registration of said identified region with said iodine counterpart image on a type of iodine uptake of said identified region so as to determine if said identified region comprises a premalignant lesion (S230-S260).
Medical kit for draining pathological fluid accumulations, in particular for carrying out an endoluminal and/or endocavitary vacuum therapy, comprising a fluid collecting body and a fluid communication body , wherein the fluid collecting body and the fluid communication body are arrangeable coaxial to each other and displaceable in relation to each other such that the fluid collecting body partially surrounds the fluid communication body , wherein the kit further includes a securing device which is configured to secure the fluid collecting body against pushing through beyond a distal end of the fluid communication body , wherein the securing device has a cross-sectional area that is greater than the cross-sectional area of the fluid communication body and is provided at the distal end of the fluid communication body , characterized in that the kit comprises a guide wire as a further kit component.
A mobile terminal comprising: a main body; a microphone disposed on a portion of the main body, configured to receive a user's voice input for controlling an operation of the mobile terminal; an analyzing unit configured to analyze an attribute of the user's voice input; a sensing unit configured to sense a degree of proximity between the user's mouth and the microphone while the voice input is received; a speaker configured to output audible data related to the user's voice input; and a display unit configured to display visible data related to the user's voice input; and a controller configured to generate visible and audible data based on the received user's voice input; characterised in that : the controller is further configured to restrict the output of the audible data via the speaker when a voice recognition mode is activated and a rotation of the mobile terminal is sensed prior to the voice being input, when the rotation is sensed while the voice is input, or when the rotation is sensed while audible data corresponding to the input voice is output. a main body; a microphone disposed on a portion of the main body, configured to receive a user's voice input for controlling an operation of the mobile terminal; an analyzing unit configured to analyze an attribute of the user's voice input; a sensing unit configured to sense a degree of proximity between the user's mouth and the microphone while the voice input is received; a speaker configured to output audible data related to the user's voice input; and a display unit configured to display visible data related to the user's voice input; and a controller configured to generate visible and audible data based on the received user's voice input; characterised in that : the controller is further configured to restrict the output of the audible data via the speaker when a voice recognition mode is activated and a rotation of the mobile terminal is sensed prior to the voice being input, when the rotation is sensed while the voice is input, or when the rotation is sensed while audible data corresponding to the input voice is output.
Holder for a bicycle in its travel position, having a frame receiver provided on a upright for supporting the bicycle frame in a travel direction , wherein the upright has a tyre receiver on the side opposite the frame receiver in the travel direction , which tyre receiver can be displaced in the travel direction between an inoperative position and a holding position by means of an adjusting drive , and wherein the adjusting drive forms an articulated linkage which is articulated to the upright so as to be at least partially retractable into it, characterised in that a linkage arm of the articulated linkage is connected to an actuating lever through a guide slot of the upright via a guide element .
A window or door system for a building having a frame and a casement pivotably mounted thereon, wherein the casement can be fixed to the frame by means of at least two locking systems, wherein each locking system consists of a locking element and a closing element , wherein the locking element comprises a fixed pin, which, upon a closing movement of the casement , is transferred from a release position into a blocked position of the same by the closing element , wherein the closing element has at least one blocking device and one releasing device, wherein each locking system is connected with each other locking system via a force transmission element , which actuates the releasing device, characterized in that the locking element is a passive fixed pin arranged with a pin mount in a groove of the insulating web of a stepped glass pane .
A toner cartridge that is detachable from a main body of an image forming apparatus, the toner cartridge comprising: a toner container to contain toner to be supplied to a development chamber of an imaging cartridge in the main body; an optical sensor comprising a light emitter to irradiate light into the development chamber and a light receiver to receive light that is emitted out of the development chamber after passing through the development chamber , and to detect a toner level in the development chamber ; and a memory (110/410) that is connectable to a connection portion (3/4) provided in the main body when the toner cartridge is mounted in the main body to transmit to the main body the toner level detected by using the optical sensor . a toner container to contain toner to be supplied to a development chamber of an imaging cartridge in the main body; an optical sensor comprising a light emitter to irradiate light into the development chamber and a light receiver to receive light that is emitted out of the development chamber after passing through the development chamber , and to detect a toner level in the development chamber ; and a memory (110/410) that is connectable to a connection portion (3/4) provided in the main body when the toner cartridge is mounted in the main body to transmit to the main body the toner level detected by using the optical sensor .
A sensor assembly , comprising: a substrate having a first outer surface and a second outer surface opposite the first outer surface ; a first die attached to the first outer surface and having a first diaphragm ; a second die attached to the second outer surface and having a second diaphragm ; a full-bridge pressure sensor including a plurality of piezoresistive elements , a first subset of at least two of the plurality of piezoresistive elements is disposed on or in the first diaphragm ; and an integrated circuit ; characterized in that the full-bridge pressure sensor includes a second subset of at least two of the plurality of piezoresistive elements disposed on or in the second diaphragm , the first subset and the second subset of the piezoresistive elements are connected to the integrated circuit , the integrated circuit is configured to receive a first signal from the first subset and a second signal from the second subset , the integrated circuit is configured to correct a signal error between the first signal and the second signal and to measure a pressure around the sensor assembly ; and the integrated circuit is a first integrated circuit disposed on the first outer surface and further comprising a second integrated circuit disposed on the second outer surface . a substrate having a first outer surface and a second outer surface opposite the first outer surface ; a first die attached to the first outer surface and having a first diaphragm ; a second die attached to the second outer surface and having a second diaphragm ; a full-bridge pressure sensor including a plurality of piezoresistive elements , a first subset of at least two of the plurality of piezoresistive elements is disposed on or in the first diaphragm ; and an integrated circuit ; characterized in that the full-bridge pressure sensor includes a second subset of at least two of the plurality of piezoresistive elements disposed on or in the second diaphragm , the first subset and the second subset of the piezoresistive elements are connected to the integrated circuit , the integrated circuit is configured to receive a first signal from the first subset and a second signal from the second subset , the integrated circuit is configured to correct a signal error between the first signal and the second signal and to measure a pressure around the sensor assembly ; and the integrated circuit is a first integrated circuit disposed on the first outer surface and further comprising a second integrated circuit disposed on the second outer surface .
A device for managing at least one flexible cable having a rigid portion , the device comprising: - a first axial end and a second axial end distanced from one another along an axis (Y) of the device , - at least a first winding surface at the first axial end and at least a second winding surface at the second axial end for receiving at least a first coil and a second coil of the flexible cable , the first and second winding surfaces being transversal with respect to the axis (Y) of the device , and - a constraint for supporting the rigid portion of the flexible cable between the first and the second axial end , wherein a first part of the flexible cable enters the device at the first axial end and is wound onto the second winding surface at the second axial end to form the first coil , and wherein a second part of the flexible cable enters the device at the second axial end and is wound onto the first winding surface at the first axial end to form the second coil . - a first axial end and a second axial end distanced from one another along an axis (Y) of the device , - at least a first winding surface at the first axial end and at least a second winding surface at the second axial end for receiving at least a first coil and a second coil of the flexible cable , the first and second winding surfaces being transversal with respect to the axis (Y) of the device , and - a constraint for supporting the rigid portion of the flexible cable between the first and the second axial end ,