mhurhangee/ep-ind-claims huggingface dataset:
A cargo transport unit, such as a container or a cassette framework, the transport unit comprising a bottom structure (1, 1') following the shape of a rectangle, a first longitudinal side (2, 2') oriented upwards from the bottom structure and a second longitudinal side (3, 3') opposite to the first longitudinal side, a first end (4, 4') oriented upwards from the bottom structure and a second end (5, 5') opposite to the first end, and an upper structure (6, 6') following the shape of a rectangle, whereby the bottom structure (1, 1') comprises in its every corner a fastening device (7 to 10, 7' to 9') for fastening the cargo transport unit to a base, such as a deck of a ship, and the upper structure (6, 6') comprises in its every corner a fastening member (15 to 18, 15' to 18'), and in the middle of both longitudinal edges of the upper structure (6, 6') are provided two adjacent fastening members (19, 20 and 21, 22, 19', 20' and 21', 22') for receiving the bottom structure of another cargo transport unit and for fastening it to the upper structure (6, 6') of the cargo transport unit in order to stack the cargo transport units on top of one another, characterized in that the cargo transport unit comprises an adjustment arrangement for changing a mutual height position of the adjacent fastening members (19, 20 and 21, 22, 19', 20' and 21', 22') provided on both longitudinal edges of the upper structure (6, 6') such that they are uniformly and in equal amount loaded when the cargo transport unit is hoisted by a hoisting frame at eight hoisting points that, in addition to the fastening members (15 to 18, 15' to 18') provided in the corners of the upper structure (6, 6') of the cargo transport unit, are formed by the adjacent fastening members (19, 20 and 21, 22, 19', 20' and 21', 22') provided in the middle of the longitudinal edges of the cargo transport unit.
Tremor stabilisation apparatus comprising a housing that is attachable to a part of a user's body, and a rotatable flywheel assembly mounted to the housing, the rotatable flywheel assembly comprising: a rotatable flywheel; a prime mover arranged to rotate the flywheel about a flywheel rotation axis; and a gimbal to which the flywheel is attached, the gimbal being pivotally mounted to the housing at a hinge (32, 33) formed between the gimbal and the housing and defining a precession axis such that the flywheel can process with respect to the housing about the precession axis, wherein the tremor stabilisation apparatus further comprises a biasing member arranged to oppose precession of the rotatable flywheel assembly and urge the rotatable flywheel assembly to an equilibrium position; characterised in that the precession axis is fixed relative to the housing. a rotatable flywheel; a prime mover arranged to rotate the flywheel about a flywheel rotation axis; and a gimbal to which the flywheel is attached, the gimbal being pivotally mounted to the housing at a hinge (32, 33) formed between the gimbal and the housing and defining a precession axis such that the flywheel can process with respect to the housing about the precession axis, wherein the tremor stabilisation apparatus further comprises a biasing member arranged to oppose precession of the rotatable flywheel assembly and urge the rotatable flywheel assembly to an equilibrium position; characterised in that the precession axis is fixed relative to the housing.
A brachytherapy apparatus for applying a brachytherapy to a living object, the brachytherapy apparatus comprising: - a radiation source configured to emit radiation, - a placing unit for being inserted into the living object and for placing the radiation source close to a target region of the living object for directing the emitted radiation to the target region, wherein the living object swells when the placing unit is inserted into the living object, - an imaging unit (4, 8) for generating images of the living object over time, - a spatial parameter determination unit for determining a spatial parameter of the living object, which changes over time with the swelling of the living object, from the generated images of the living object, - a treatment time window determination unit for determining a treatment time window, in which a change of the spatial parameter of the living object is minimal, - a planning unit for determining a placing plan defining placing positions within the living object at which the radiation source is to be placed and placing times defining when and how long the radiation source is to be placed at the respective placing position based on the generated images and the determined treatment time window, wherein the planning unit is adapted to determine the placing plan such that the placing times are within the treatment time window. - a radiation source configured to emit radiation, - a placing unit for being inserted into the living object and for placing the radiation source close to a target region of the living object for directing the emitted radiation to the target region, wherein the living object swells when the placing unit is inserted into the living object, - an imaging unit (4, 8) for generating images of the living object over time, - a spatial parameter determination unit for determining a spatial parameter of the living object, which changes over time with the swelling of the living object, from the generated images of the living object, - a treatment time window determination unit for determining a treatment time window, in which a change of the spatial parameter of the living object is minimal, - a planning unit for determining a placing plan defining placing positions within the living object at which the radiation source is to be placed and placing times defining when and how long the radiation source is to be placed at the respective placing position based on the generated images and the determined treatment time window, wherein the planning unit is adapted to determine the placing plan such that the placing times are within the treatment time window.
Method for checking a tyre, comprising: - providing a tyre to be checked; - associating a first light source and a second light source, able to be activated independently, with a camera; - applying a first force against a first surface portion of said tyre so as to generate a first deformed surface portion; - illuminating said first deformed surface portion of said tyre with a first light radiation emitted by said first light source; - keeping said second light source inactive during said deformation; - acquiring a first image of said first deformed surface portion illuminated by said first light radiation through said camera; - removing said first force from said first surface portion of said tyre; - selecting a second surface portion at least partially distinct from said first surface portion of said tyre; - illuminating said second undeformed surface portion of said tyre with a second light radiation emitted by said second light source; - acquiring a second image of said second undeformed surface portion illuminated by said second light radiation through said camera; and - processing said first image and said second image, so as to detect possible defects in said first surface portion and in said second surface portion of said tyre, wherein illuminating with a first light radiation comprises illuminating said deformed first surface portion with a diffused first light radiation and illuminating with a second light radiation comprises illuminating said second surface portion with a grazing light radiation. - providing a tyre to be checked; - associating a first light source and a second light source, able to be activated independently, with a camera; - applying a first force against a first surface portion of said tyre so as to generate a first deformed surface portion; - illuminating said first deformed surface portion of said tyre with a first light radiation emitted by said first light source; - keeping said second light source inactive during said deformation; - acquiring a first image of said first deformed surface portion illuminated by said first light radiation through said camera; - removing said first force from said first surface portion of said tyre; - selecting a second surface portion at least partially distinct from said first surface portion of said tyre; - illuminating said second undeformed surface portion of said tyre with a second light radiation emitted by said second light source; - acquiring a second image of said second undeformed surface portion illuminated by said second light radiation through said camera; and - processing said first image and said second image, so as to detect possible defects in said first surface portion and in said second surface portion of said tyre,
Timepiece component made up of a polymer-based matrix and a reinforcement, characterized in that the reinforcement consists of fibres of at least two different kinds (121, 122) in cut form, one of which is a polyazole.
A device comprising: a vertex cache having a plurality of MD cache registers for storing shader variables; a storage medium comprising: a plurality of shared M-dimensional registers; and a packing buffer with at least one MD register to pack consecutively M components of shader variables; and a processing unit to implement a set of operations comprising: a first packing operation to pack in each shared MD register of a first plurality of shared MD registers of the storage medium all shader variables, comprising assigning, to the same shared MD register, two or more shader variables whose total number of components equals M; a second packing operation to consecutively pack M components of the assigned and remaining shader variables from the first plurality of shared MD registers into a packing buffer; and transfer contents of the at least one MD register of the packing buffer when full to a respective MD cache register in the vertex cache. a vertex cache having a plurality of MD cache registers for storing shader variables; a storage medium comprising: a plurality of shared M-dimensional registers; and a packing buffer with at least one MD register to pack consecutively M components of shader variables; and a plurality of shared M-dimensional registers; and a packing buffer with at least one MD register to pack consecutively M components of shader variables; and a processing unit to implement a set of operations comprising: a first packing operation to pack in each shared MD register of a first plurality of shared MD registers of the storage medium all shader variables, comprising assigning, to the same shared MD register, two or more shader variables whose total number of components equals M; a second packing operation to consecutively pack M components of the assigned and remaining shader variables from the first plurality of shared MD registers into a packing buffer; and transfer contents of the at least one MD register of the packing buffer when full to a respective MD cache register in the vertex cache. a first packing operation to pack in each shared MD register of a first plurality of shared MD registers of the storage medium all shader variables, comprising assigning, to the same shared MD register, two or more shader variables whose total number of components equals M; a second packing operation to consecutively pack M components of the assigned and remaining shader variables from the first plurality of shared MD registers into a packing buffer; and transfer contents of the at least one MD register of the packing buffer when full to a respective MD cache register in the vertex cache.
Electrically switchable motor vehicle glazing, for example a side or rear window of a motor vehicle, in which at least one optical characteristic can be changed by supplying an electrical signal through a lead that is arranged at a pane holder of the motor vehicle glazing, wherein a control and regulation unit for supplying the electrical signal is provided in a housing that is arranged at the drive or cable drum housing of a motor window lifter in a stationary manner with respect to a motor vehicle body for opening and closing the motor vehicle glazing, characterized in that the housing is formed in one piece at the drive or cable drum housing of the motor window lifter for receiving the control and regulation unit.
Solar box with a junction box and at least one expansion module (3, 20), which can be operatively connected to the junction box by way of a first and a second connector part (9, 10) of a standardised interface, wherein the junction box has a connection duct and contacts, wherein the contacts are used for connecting to corresponding connection strips of a solar panel and open into the connection duct from a least one duct wall, wherein when installed the at least one expansion module (3, 20) has a distance (a) from the solar panel, resulting in a gap, wherein the solar box comprises a first expansion module having connection cables and wherein the first expansion module has electronic components, which allow a solar panel to be decoupled during operation.
A method for controlling a motor vehicle, the method comprising the steps of: - detecting the movement of a gearshift actuator that includes haptic means arranged such that different gearshifting positions of the gearshift actuator are felt by the user when operated, said step of detecting the movement of gearshift actuator being carried out based on a first accelerometer fitted on a fixed part of the motor vehicle that is suitable for detecting the acceleration of the motor vehicle and a second accelerometer fitted on the gearshift actuator that is suitable for detecting the acceleration of the gearshift actuator when actuated by the user; - assessing the behaviour of the gearshift actuator according to the detected movement of the gearshift actuator; - determining first acceleration values from the first accelerometer; - determining second acceleration values from the second accelerometer as the gearshift actuator is moved by the user according to said shifting positions felt by the user through the haptic means; - determining relative values corresponding to accelerations, said relative values being determined through comparison therebetween; - comparing said relative values to predetermined values of acceleration corresponding to pre-set intended operations; - determining an intended shifting operation associated with the behaviour of the gearshift actuator; and - generating a command signal from the detected movement of the gearshift actuator based on the intended operation; said command signal being used for controlling the motor vehicle transmission. - detecting the movement of a gearshift actuator that includes haptic means arranged such that different gearshifting positions of the gearshift actuator are felt by the user when operated, said step of detecting the movement of gearshift actuator being carried out based on a first accelerometer fitted on a fixed part of the motor vehicle that is suitable for detecting the acceleration of the motor vehicle and a second accelerometer fitted on the gearshift actuator that is suitable for detecting the acceleration of the gearshift actuator when actuated by the user; - assessing the behaviour of the gearshift actuator according to the detected movement of the gearshift actuator; - determining first acceleration values from the first accelerometer; - determining second acceleration values from the second accelerometer as the gearshift actuator is moved by the user according to said shifting positions felt by the user through the haptic means; - determining relative values corresponding to accelerations, said relative values being determined through comparison therebetween; - comparing said relative values to predetermined values of acceleration corresponding to pre-set intended operations; - determining an intended shifting operation associated with the behaviour of the gearshift actuator; and - generating a command signal from the detected movement of the gearshift actuator based on the intended operation; said command signal being used for controlling the motor vehicle transmission.
A bullet path adjustment apparatus (47, 51) for a dot sighting device comprising: an upper plate to be connected to a dot sighting device; a lower plate to be connected to a mount; a bullet path adjustment mechanism including a bullet path adjustment axis and a bullet path adjustment handle; and a zeroing adjustment mechanism (17, 45) that sets a zero point of the dot sighting device and is distinct from the bullet path adjustment mechanism, wherein the zeroing adjustment mechanism includes a first control mechanism that adjusts the zero point of the dot sighting device in upper and lower directions; wherein the bullet path adjustment axis contacts a bullet path adjustment axis contact portion and is connected to the bullet path adjustment handle; wherein the bullet path adjustment axis includes a plurality of selections each having a different normal distance from a center of rotation of the bullet path adjustment axis; and wherein, in use, when a corresponding selection is selected by rotating the bullet path adjustment handle, the slope of the upper plate is changed according to the distance to the target. an upper plate to be connected to a dot sighting device; a lower plate to be connected to a mount; a bullet path adjustment mechanism including a bullet path adjustment axis and a bullet path adjustment handle; and a zeroing adjustment mechanism (17, 45) that sets a zero point of the dot sighting device and is distinct from the bullet path adjustment mechanism, wherein the zeroing adjustment mechanism includes a first control mechanism that adjusts the zero point of the dot sighting device in upper and lower directions; wherein the bullet path adjustment axis contacts a bullet path adjustment axis contact portion and is connected to the bullet path adjustment handle; wherein the bullet path adjustment axis includes a plurality of selections each having a different normal distance from a center of rotation of the bullet path adjustment axis; and wherein, in use, when a corresponding selection is selected by rotating the bullet path adjustment handle, the slope of the upper plate is changed according to the distance to the target.
A toner comprising: a phosphorescent pigment particle having a size of from 5 microns to 50 microns; a resin coating on at least a portion of a surface of the phosphorescent pigment; and optionally a surface additive on at least a portion of the resin coating, wherein the phosphorescent pigment has an excitation wavelength of from 200 nm to 750 nm, wherein the resin coating comprises an amorphous polyester in combination with a crystalline polyester and further wherein the amorphous polyester comprises a poly(propoxylated bisphenol A co-fumarate) resin of formula: wherein m may be from 5 to 1000, and wherein the crystalline polyester is of the following formula: wherein b is from 5 to 2000 and d is from 5 to 2000. a phosphorescent pigment particle having a size of from 5 microns to 50 microns; a resin coating on at least a portion of a surface of the phosphorescent pigment; and optionally a surface additive on at least a portion of the resin coating,
A hydraulic damper for a motor vehicle hydraulic suspension damper, comprising a main tube filled with a working liquid, a piston assembly disposed slidably inside said main tube and dividing said main tube into a rebound chamber and a compression chamber, said damper provided with a rebound valve assembly and a compression valve assembly to control a flow of said working liquid within said main tube during rebound and compression strokes of said damper, said piston assembly attached to a piston rod that is led outside said damper, and a compression stop assembly located in said compression chamber; said compression stop assembly comprising a body, an axial member disposed slidably within said body, and a covering member fixed on said axial member, said covering member further comprising at least one compression flow channel and at least one rebound flow channel; a disengaging spring preloaded between said body and said covering member characterized in that said compression stop assembly further comprises a rotating member disposed pivotally with respect to said body and capable of at least partially covering said at least one compression flow channel depending on an angular position of said rotating member with respect to said at least one compression flow channel; and at least one cam configured to cooperate with said rotating member to change its angular position with respect to its axial displacement; wherein axial displacement of said covering member towards said body, while being engaged by said piston assembly results in covering said at least one compression flow channel by said rotating member, wherein said rotating member comprises at least one radial projection cooperating with said cam which has a spiral shape in an inner annular surface of said body, wherein said at least one radial projection is disposed in said cam.
A bisaminoalkoxysilane compound having a Formula I: R 1 Si(NR 2 R 3)(NR 4 R 5)OR 6 I where R 1 is selected from a hydrogen atom, a C 1 to C 10 linear alkyl group, a C 3 to C 10 branched alkyl group, a C 3 to C 10 cyclic alkyl group, a C 2 to C 10 alkenyl group, a C 2 to C 10 alkynyl group, a C 4 to C 10 aromatic hydrocarbon group; R 2 and R 4 are each hydrogen atoms; R 3 and R 5 are each independently selected from a C 4 to C 10 branched alkyl group; and R 6 is selected from a C 1 to C 10 linear alkyl group, a C 3 to C 10 branched alkyl group, a C 3 to C 10 cyclic alkyl group, a C 2 to C 10 alkenyl group, a C 2 to C 10 alkynyl group, and a C 4 to C 10 aromatic hydrocarbon group.
A non-circular tube, comprising of a tubular body formed from laminated foil, having its front end wrapped over a rounding in the head where a welding seam is made, the head have opening for expelling the product, in the welding seam zone the head has a non-circular section, and the seam at the bottom end of the tube is in a plane passing through the tube axis, characterized in that the front end of the tubular body before welding to the head is shaped into a 3-D curve, which, taking into account the shape and size of the head, provides in cach section of the head with a plane passing through the axis of the tube, constant height H to the front end of the tubular body relative to the base of the head according to the following relation: L = a + R ⁢ πα 180 + sin α max - sin α cos α Where: L is variable length of the forming curve of the tubular body in each of its sections; a is constant length; R is constant radius of the rounding; α is variable angle between the surface line of the head and the axis of the head; α max is the biggest value of the variable angle α. L is variable length of the forming curve of the tubular body in each of its sections; a is constant length; R is constant radius of the rounding; α is variable angle between the surface line of the head and the axis of the head; α max is the biggest value of the variable angle α.