mhurhangee/patent-ind-claim-en huggingface dataset:
Winding machine comprising a) a frame , a) a spindle , b) a traversing mechanism , which ba) comprises a traversing guide driven for executing a traversing motion, bb) comprises a contact pressure means which is pressed against an outer surface of a winding wound on the spindle and bc) can be moved during the winding process relative to the spindle with a compensating movement corresponding to the increasing diameter of the winding, c) a head guide arranged in front of the traversing guide, the head guide being arranged on the frame at a location remote from the traversing mechanism and the winding good being directly transferred from the head guide to the traversing mechanism , characterised in that d) it is possible to move the head guide dependent on the compensating movement . a) a frame , a) a spindle , b) a traversing mechanism , which ba) comprises a traversing guide driven for executing a traversing motion, bb) comprises a contact pressure means which is pressed against an outer surface of a winding wound on the spindle and bc) can be moved during the winding process relative to the spindle with a compensating movement corresponding to the increasing diameter of the winding, ba) comprises a traversing guide driven for executing a traversing motion, bb) comprises a contact pressure means which is pressed against an outer surface of a winding wound on the spindle and bc) can be moved during the winding process relative to the spindle with a compensating movement corresponding to the increasing diameter of the winding, c) a head guide arranged in front of the traversing guide, the head guide being arranged on the frame at a location remote from the traversing mechanism and the winding good being directly transferred from the head guide to the traversing mechanism , d) it is possible to move the head guide dependent on the compensating movement .
A fluid ejection device comprising: a nozzle configured to dispense fluid; a recirculation controller configured to control recirculating of the nozzle , the recirculation controller being configured to: receive, from a fluid ejection controller , an indication corresponding to a start of a sampling time interval; determine, during the sampling time interval, whether a firing event corresponding to firing of the nozzle has occurred, and in response to determining that the firing event has not occurred, cause activation of a recirculation pump to recirculate fluid through a chamber of the nozzle ; and a die that comprises the nozzle ; characterised in that the recirculation controller is on the die. a nozzle configured to dispense fluid; a recirculation controller configured to control recirculating of the nozzle , the recirculation controller being configured to: receive, from a fluid ejection controller , an indication corresponding to a start of a sampling time interval; determine, during the sampling time interval, whether a firing event corresponding to firing of the nozzle has occurred, and in response to determining that the firing event has not occurred, cause activation of a recirculation pump to recirculate fluid through a chamber of the nozzle ; and receive, from a fluid ejection controller , an indication corresponding to a start of a sampling time interval; determine, during the sampling time interval, whether a firing event corresponding to firing of the nozzle has occurred, and in response to determining that the firing event has not occurred, cause activation of a recirculation pump to recirculate fluid through a chamber of the nozzle ; and a die that comprises the nozzle ; characterised in that the recirculation controller is on the die.
A laser welding method comprising: placing a third material between a first material and a second material that are made of metals that are weldable with each other, the third material being different from the first material and the second material , being difficult to weld to the first material and the second material and having a through-hole , forming a second gap between the first material and the second material in a region corresponding to the through-hole ; and emitting laser light , from a side on which the first material is disposed toward the region corresponding to the through-hole under a state where the third material being sandwiched between the first material and the second material and the second gap exists before welding, so that the first material and the second material are fused and bonded together via the through-hole , by which the third material is compressed between the first material and the second material and is fixed to the first material and the second material , characterized in that the second gap has a thickness depending on a plate thickness (t) of the first material disposed on a laser-incident side, so that the thickness of the second gap is not less than 4% and not more than 38% of the thickness of the first material and the second gap is determined to be not less than 0.1 mm. placing a third material between a first material and a second material that are made of metals that are weldable with each other, the third material being different from the first material and the second material , being difficult to weld to the first material and the second material and having a through-hole , forming a second gap between the first material and the second material in a region corresponding to the through-hole ; and emitting laser light , from a side on which the first material is disposed toward the region corresponding to the through-hole under a state where the third material being sandwiched between the first material and the second material and the second gap exists before welding, so that the first material and the second material are fused and bonded together via the through-hole , by which the third material is compressed between the first material and the second material and is fixed to the first material and the second material , characterized in that the second gap has a thickness depending on a plate thickness (t) of the first material disposed on a laser-incident side, so that the thickness of the second gap is not less than 4% and not more than 38% of the thickness of the first material and the second gap is determined to be not less than 0.1 mm.
Door , in particular a sectional door, comprising: a door leaf which includes several interconnected panels , pairs of track rollers which are connected with one of the several panels and are designed to guide a respective panel in guide rails (41 42, 43), wherein the door comprises an uppermost pair of track rollers , a bottommost pair of track rollers and at least one middle pair of track rollers , and the uppermost pair of track rollers , the bottommost pair of track rollers and the at least one middle pair of track rollers each run in separate guide rails , characterized in that the guide rails of the uppermost pair of track rollers have a course which in one portion has an essentially symmetrical, trough-like shape , which corresponds to a differentiable function, wherein the course of the respective guide rails with its trough-like shape preferably corresponds to a dent-shaped or a pan-shaped course that declines in a bend from a linear portion, thereby forms a first pan edge, with a further bend produces the pan bottom and with a last bend produces the second pan edge. a door leaf which includes several interconnected panels , pairs of track rollers which are connected with one of the several panels and are designed to guide a respective panel in guide rails (41 42, 43), wherein the door comprises an uppermost pair of track rollers , a bottommost pair of track rollers and at least one middle pair of track rollers , and the uppermost pair of track rollers , the bottommost pair of track rollers and the at least one middle pair of track rollers each run in separate guide rails , characterized in that the guide rails of the uppermost pair of track rollers have a course which in one portion has an essentially symmetrical, trough-like shape , which corresponds to a differentiable function, wherein the course of the respective guide rails with its trough-like shape preferably corresponds to a dent-shaped or a pan-shaped course that declines in a bend from a linear portion, thereby forms a first pan edge, with a further bend produces the pan bottom and with a last bend produces the second pan edge.
Modular kinematic steering device capable of being installed on at least a first module and a second module (2', 2") of a system of modular vehicles, each of said modules (2', 2") comprising at least two axis , wherein the modular kinematic steering device comprises - for each axis , a kinematic steering mechanism capable of moving wheels connected to said axis , - a rudder for controlling said kinematic steering mechanism , arranged transversely with respect to the axis , said rudder that can be constraint to said mechanism so as to allow the transmission of motion from said rudder to said wheels by means of said mechanism , said rudder defining a variable steering ratio with respect to each of said axis , characterized in that the modular kinematic steering device further comprises - a locking device of said mechanism , capable of making one of said axis the fulcrum of rotation of said rudder by rigidly connecting said mechanism with said rudder , and - wherein said first module comprises at least a first rudder having first and second distal ends and wherein said second module (2") comprising at least a second rudder (41") having a first and a second distal ends (41a", 41 b"), and wherein said distal ends (41a', 41b", 41b', 41a") are contoured and/or counter-shaped in order to be rigidly connected to each other. - for each axis , a kinematic steering mechanism capable of moving wheels connected to said axis , - a rudder for controlling said kinematic steering mechanism , arranged transversely with respect to the axis , said rudder that can be constraint to said mechanism so as to allow the transmission of motion from said rudder to said wheels by means of said mechanism , said rudder defining a variable steering ratio with respect to each of said axis , characterized in that the modular kinematic steering device further comprises - a locking device of said mechanism , capable of making one of said axis the fulcrum of rotation of said rudder by rigidly connecting said mechanism with said rudder , and - wherein said first module comprises at least a first rudder having first and second distal ends and wherein said second module (2") comprising at least a second rudder (41") having a first and a second distal ends (41a", 41 b"), and wherein said distal ends (41a', 41b", 41b', 41a") are contoured and/or counter-shaped in order to be rigidly connected to each other.
Device for storing energy, having a substantially vertically arranged cylinder/piston arrangement, wherein the piston constitutes a mass which is intended to be lifted, wherein fluid can be conveyed by a pumping device into the cylinder below the piston in order to increase the potential energy of the piston mass by raising the piston , wherein a converter device is arranged, wherein fluid which is located in the cylinder can be supplied to the converter device when the piston is lowered in order to convert at least a portion of the potential energy of the piston mass into electrical energy, characterised in that the piston has a plurality of segments which are arranged one above the other and/or beside each other.
Method for joining paper material at a first joining area and a second joining area , comprising the steps: - moistening the first joining area and/or the second joining area and - joining the first and the second joining area between a sonotrode and an anvil of an ultrasonic friction welding device by means of ultrasonic friction welding, wherein a direction of oscillation of the sonotrode is not parallel to a direction of joining force (B) of a joining force of the anvil , characterized in that the method comprises the step: - roughening of the first joining area (20 and/or the second joining area . - moistening the first joining area and/or the second joining area and - joining the first and the second joining area between a sonotrode and an anvil of an ultrasonic friction welding device by means of ultrasonic friction welding, wherein a direction of oscillation of the sonotrode is not parallel to a direction of joining force (B) of a joining force of the anvil , characterized in that the method comprises the step: - roughening of the first joining area (20 and/or the second joining area .
A method of collaboratively directing headlights among vehicles traveling as a platoon, comprising: receiving, from a first vehicle by a second vehicle processor of a second vehicle traveling in the platoon with the first vehicle, a collaborative lighting plan, wherein the collaborative lighting plan directs the second vehicle to direct one or more headlights of the second vehicle ; determining, by the second vehicle processor, whether the second vehicle can comply with the collaborative lighting plan ; transmitting, by the second vehicle processor to the first vehicle, a request to change the collaborative lighting plan in response to determining that the second vehicle cannot comply with the collaborative lighting plan ; receiving, by the second vehicle processor from the first vehicle, an update to the collaborative lighting plan ; and directing, by the second vehicle processor, one or more headlights of the second vehicle in accordance with the updated collaborative lighting plan . receiving, from a first vehicle by a second vehicle processor of a second vehicle traveling in the platoon with the first vehicle, a collaborative lighting plan, wherein the collaborative lighting plan directs the second vehicle to direct one or more headlights of the second vehicle ; determining, by the second vehicle processor, whether the second vehicle can comply with the collaborative lighting plan ; transmitting, by the second vehicle processor to the first vehicle, a request to change the collaborative lighting plan in response to determining that the second vehicle cannot comply with the collaborative lighting plan ; receiving, by the second vehicle processor from the first vehicle, an update to the collaborative lighting plan ; and directing, by the second vehicle processor, one or more headlights of the second vehicle in accordance with the updated collaborative lighting plan .
A lighting device including: - an elongated support structure having a longitudinal direction (X10) and electrically-powered light radiation sources distributed along the support structure , wherein the support structure includes at least one light-permeable layer , - at least one optical signal source mounted along the support structure and coupled with the at least one light-permeable layer , configured for injecting into the at least one light-permeable layer an optical signal undergoing total internal reflection propagating along the at least one light-permeable layer in said longitudinal direction (X10), and - at least one optical signal detector arranged along the support structure and coupled with the at least one light-permeable layer , configured for detecting the optical signal injected into the at least one light-permeable layer by said at least one optical signal source . - an elongated support structure having a longitudinal direction (X10) and electrically-powered light radiation sources distributed along the support structure , wherein the support structure includes at least one light-permeable layer , - at least one optical signal source mounted along the support structure and coupled with the at least one light-permeable layer , configured for injecting into the at least one light-permeable layer an optical signal undergoing total internal reflection propagating along the at least one light-permeable layer in said longitudinal direction (X10), and - at least one optical signal detector arranged along the support structure and coupled with the at least one light-permeable layer , configured for detecting the optical signal injected into the at least one light-permeable layer by said at least one optical signal source .
An integrated circuit structure, comprising: a body comprising one or more semiconductor (105;109;305;309;405;409) materials and having a first width defined by a distance between opposing sidewalls of the body; a first transistor above the body and including a first fin, nanowire, or nanoribbon, the first fin, nanowire, or nanoribbon having a second width defined by a distance between opposing sidewalls of the first fin, nanowire, or nanoribbon; a second transistor below the body and including a second fin, nanowire, or nanoribbon, the second fin, nanowire, or nanoribbon having a third width defined by a distance between opposing sidewalls of the second fin, nanowire, or nanoribbon; and wherein both of the second and third widths are at least 1.5 times less than the first width, wherein: the opposing sidewalls of both the first and second fin, nanowire, or nanoribbon are tapered; the opposing sidewalls of the first fin, nanowire, or nanoribbon are not collinear with the opposing sidewalls of the second fin, nanowire, or nanoribbon; and one of the opposing sidewalls of both of the first fin, nanowire, or nanoribbon and the second fin, nanowire, or nanoribbon is collinear with a corresponding one of the opposing sidewalls of the body. a body comprising one or more semiconductor (105;109;305;309;405;409) materials and having a first width defined by a distance between opposing sidewalls of the body; a first transistor above the body and including a first fin, nanowire, or nanoribbon, the first fin, nanowire, or nanoribbon having a second width defined by a distance between opposing sidewalls of the first fin, nanowire, or nanoribbon; a second transistor below the body and including a second fin, nanowire, or nanoribbon, the second fin, nanowire, or nanoribbon having a third width defined by a distance between opposing sidewalls of the second fin, nanowire, or nanoribbon; and wherein both of the second and third widths are at least 1.5 times less than the first width, wherein: the opposing sidewalls of both the first and second fin, nanowire, or nanoribbon are tapered; the opposing sidewalls of the first fin, nanowire, or nanoribbon are not collinear with the opposing sidewalls of the second fin, nanowire, or nanoribbon; and one of the opposing sidewalls of both of the first fin, nanowire, or nanoribbon and the second fin, nanowire, or nanoribbon is collinear with a corresponding one of the opposing sidewalls of the body. the opposing sidewalls of both the first and second fin, nanowire, or nanoribbon are tapered; the opposing sidewalls of the first fin, nanowire, or nanoribbon are not collinear with the opposing sidewalls of the second fin, nanowire, or nanoribbon; and one of the opposing sidewalls of both of the first fin, nanowire, or nanoribbon and the second fin, nanowire, or nanoribbon is collinear with a corresponding one of the opposing sidewalls of the body.
Closed climate cell for plant cultivation in multiple layers arranged one above the other, wherein the climate cell comprises at least one chamber in which the layers are arranged one above the other and extend from a first side of the chamber to a second side of the chamber , wherein each layer has at least one plant-cultivation container and at least one lighting platform arranged thereabove, wherein a climate is set in the at least one chamber by means of a climate system of the climate cell , characterized in that in each case one heat-storing element is arranged on the first side and second side of the at least one chamber , wherein an air flow generated by a ventilation system of the climate system flows through both heat-storing elements , wherein, at least at a point in time, one of the two sides , forms an air-inlet side and the remaining side forms an air-outlet side for the air flow , wherein the heat-storing element arranged on the air-inlet side functions as a heat-emitting element and the heat-storing element arranged on the air-outlet side functions as a heat-absorbing element .
A selective access device for a picking/depositing station in an automated warehouse , the device defining an access area and comprising: - a first cover engaging said access area and defined by a pair of movable plane surfaces , which are parallel or coplanar to one another and are slidable along a first rectilinear axis (D) and are adapted to define a first opening in said access area ; - movement means controlled so as to move said movable plane surfaces along said first axis (D); - a second cover engaging said access area , arranged above said first cover and configurable so as to open/close, in said access area , a second opening aligned with said first opening ; said second cover being defined by a plurality of doors , each rotating about a relative rotation axis (E) in respect to said first cover to define said second opening ; said doors being arranged side-by-side along a second rectilinear axis (A), orthogonal to said first axis (D); the device comprising, for each said door , a relative lock for keeping said door closed; characterised in that said movable plane surfaces can slide in opposite directions to open and close said first opening , and in that said rotation axes (E) are parallel to said second axis (A). - a first cover engaging said access area and defined by a pair of movable plane surfaces , which are parallel or coplanar to one another and are slidable along a first rectilinear axis (D) and are adapted to define a first opening in said access area ; - movement means controlled so as to move said movable plane surfaces along said first axis (D); - a second cover engaging said access area , arranged above said first cover and configurable so as to open/close, in said access area , a second opening aligned with said first opening ; said second cover being defined by a plurality of doors , each rotating about a relative rotation axis (E) in respect to said first cover to define said second opening ; said doors being arranged side-by-side along a second rectilinear axis (A), orthogonal to said first axis (D); the device comprising, for each said door , a relative lock for keeping said door closed; characterised in that said movable plane surfaces can slide in opposite directions to open and close said first opening , and in that said rotation axes (E) are parallel to said second axis (A). said second cover being defined by a plurality of doors , each rotating about a relative rotation axis (E) in respect to said first cover to define said second opening ; said doors being arranged side-by-side along a second rectilinear axis (A), orthogonal to said first axis (D); the device comprising, for each said door , a relative lock for keeping said door closed; characterised in that said movable plane surfaces can slide in opposite directions to open and close said first opening , and in that said rotation axes (E) are parallel to said second axis (A).
A process for the preparation of a hardening accelerator composition, the hardening accelerator composition containing calcium silicate hydrate particles wherein the molar ratio of calcium to silicon in the calcium silicate hydrate particles is 0.6 to 2, by reacting a calcium source selected from calcium hydroxide, calcium oxide and calcium hydroxide forming compounds, optionally together with a water-soluble calcium compound selected from calcium acetate and calcium formate, with a water-soluble silicate compound in the presence of at least one water-soluble polymeric dispersing agent which includes anionic and/or anionogenic groups and polyether side chains, wherein the water-soluble silicate compound is selected from an alkali metal silicate with the formula m SiO 2 · n M 2 O, wherein M is Li, Na, K or NH 4 or mixtures thereof, m and n are molar numbers and the ratio of m:n is from 2.5 to 4.