mhurhangee/ep-ind-claims huggingface dataset:
A surveying system, comprising: - a support (3, 7); - a rotating mirror unit including - a mounting structure, - a motor having a shaft rotatable about a first axis, wherein the motor is mounted on the mounting structure, and - a mirror having a mirror surface, wherein the mirror is mounted on the shaft of the motor; - a measuring unit including - a mounting structure and - a light source and optics (17, 18, 19) mounted on the mounting structure and configured to direct a beam of measuring light onto the mirror surface; and - a window made of a material transmitting light of the beam of measuring light, - wherein the window is arranged in a beam path of the beam of measuring light downstream of the mirror, and - wherein the window mechanically connects the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit, wherein one of the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit is mounted on and carried by the support (3, 7) characterized in that the other one of the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit is carried by the window. - a support (3, 7); - a rotating mirror unit including - a mounting structure, - a motor having a shaft rotatable about a first axis, wherein the motor is mounted on the mounting structure, and - a mirror having a mirror surface, wherein the mirror is mounted on the shaft of the motor; - a mounting structure, - a motor having a shaft rotatable about a first axis, wherein the motor is mounted on the mounting structure, and - a mirror having a mirror surface, wherein the mirror is mounted on the shaft of the motor; - a measuring unit including - a mounting structure and - a light source and optics (17, 18, 19) mounted on the mounting structure and configured to direct a beam of measuring light onto the mirror surface; and - a mounting structure and - a light source and optics (17, 18, 19) mounted on the mounting structure and configured to direct a beam of measuring light onto the mirror surface; and - a window made of a material transmitting light of the beam of measuring light, - wherein the window is arranged in a beam path of the beam of measuring light downstream of the mirror, and - wherein the window mechanically connects the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit, - wherein the window is arranged in a beam path of the beam of measuring light downstream of the mirror, and - wherein the window mechanically connects the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit, wherein one of the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit is mounted on and carried by the support (3, 7) characterized in that the other one of the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit is carried by the window.
Screw, in particular dowel screw, having a screw shaft with a screw head, arranged at a shaft end, with a force application point and a screw tip opposite the screw head and formed at the end of the screw shaft, which screw tip tapers towards its free end, as well as with a screw thread extending at least over a section of the screw shaft and over the screw tip, the thread pitch of said screw thread having a triangular cross section viewed in longitudinal section, with two thread flanks (8, 9) intersecting in a flank tip, characterized in that the flank tip is rounded, wherein a radius of the curve of the rounded flank tip is selected in the size of 1 % to 10 % of the nominal diameter of the screw and wherein the thread flanks (8, 9) are each formed of two flank sections (11, 12), which together form an obtuse angle, a) wherein the flank section beginning at the screw shaft has a radial height perpendicular to the longitudinal axis (X-X) of the screw shaft, and b) the adjoining flank section has a radial height perpendicular to the longitudinal axis (X-X) of the screw shaft, and ends in the rounded flank tip, wherein the sum of the radial heights (H1, H2) corresponds to the thread height. a) wherein the flank section beginning at the screw shaft has a radial height perpendicular to the longitudinal axis (X-X) of the screw shaft, and b) the adjoining flank section has a radial height perpendicular to the longitudinal axis (X-X) of the screw shaft, and ends in the rounded flank tip,
A computer-implemented cooking method, comprising: receiving first image data corresponding to a view associated with a solid food item at a first time of a cooking process implemented by a cooking apparatus; receiving second image data corresponding to a view associated with the solid food item at a second time of the cooking process; comparing the first image data with the second image data to detect a geometric change indicative of liquid loss from the solid food item between the first time and the second time as a result of the cooking process, wherein the geometric change is detected by identifying a change in position and/or size of at least part of the solid food item between the first and second image data; identifying a transition from a first phase to a second phase of the cooking process where liquid loss from the solid food item as a result of the cooking process occurs at a higher rate during the second phase than the first phase by comparing the identified change in position and/or size with a threshold geometrical change value indicative of the transition, wherein the transition from the first phase to the second phase occurs when, during the cooking process, a structure of the solid food item undergoes a physical change as a result of the cooking process such that liquid is released from the structure; and in response to the identified change in position and/or size crossing the threshold geometrical change value, causing the cooking apparatus to modify the cooking process by reducing a cooking temperature of the cooking apparatus. receiving first image data corresponding to a view associated with a solid food item at a first time of a cooking process implemented by a cooking apparatus; receiving second image data corresponding to a view associated with the solid food item at a second time of the cooking process; comparing the first image data with the second image data to detect a geometric change indicative of liquid loss from the solid food item between the first time and the second time as a result of the cooking process, wherein the geometric change is detected by identifying a change in position and/or size of at least part of the solid food item between the first and second image data; identifying a transition from a first phase to a second phase of the cooking process where liquid loss from the solid food item as a result of the cooking process occurs at a higher rate during the second phase than the first phase by comparing the identified change in position and/or size with a threshold geometrical change value indicative of the transition, wherein the transition from the first phase to the second phase occurs when, during the cooking process, a structure of the solid food item undergoes a physical change as a result of the cooking process such that liquid is released from the structure; and in response to the identified change in position and/or size crossing the threshold geometrical change value, causing the cooking apparatus to modify the cooking process by reducing a cooking temperature of the cooking apparatus.
An interior part combined structure obtained by combining a first interior part with a second interior part, the first interior part including a first base and a design material attached to the first base so as to cover at least a part of a surface of the first base, the second interior part including a second base provided so as to cover an end part of the first base, wherein: the design material is a woven fabric woven by using synthetic resin fibers and side emission type optical fibers as warps or wefts; the side emission type optical fibers each include one end part to which a light source is connected; the one end part includes an end surface facing a light emitting part of the light source, characterized in that the second base includes a bent end part; and the bent end part includes an end surface brought into contact with or facing the design material. the design material is a woven fabric woven by using synthetic resin fibers and side emission type optical fibers as warps or wefts; the side emission type optical fibers each include one end part to which a light source is connected; the one end part includes an end surface facing a light emitting part of the light source, characterized in that the second base includes a bent end part; and the bent end part includes an end surface brought into contact with or facing the design material.
A machine for preparing an aerated or whipped cooled food product, comprising: - a receiving seat, for accommodating a container, comprising a heat exchange element having a heat exchange contact surface arranged to be in contact with an outer surface of a side wall of the container when the container is placed in the machine, - a cooling unit arranged for cooling the heat exchange element and, - a stirring unit connectable to a stirring member and arranged for driving the stirring member in at least one rotational movement; comprising - means for measuring the temperature of the product while being prepared, - torque sensing means (27a, 27b), connected to the stirring unit, for sensing the viscosity of the product during preparation, wherein it comprises - a control unit for automatically setting output parameters according to input parameters received by the control unit and compared to threshold values stored in the unit, - wherein the output parameters comprises: at least one rotational velocity of the stirring member and the cooling power of the heat exchange element, - wherein the input parameters comprise the measured product temperature, the stirring time and the sensed torque value, - the control unit being arranged to control the preparation of the cooled product by storing output parameters and setting threshold values of input parameters according to different phases during the preparation of the cooled product, the output parameters and the threshold values of input parameters being specific to the type of cooled product to be prepared. - a receiving seat, for accommodating a container, comprising a heat exchange element having a heat exchange contact surface arranged to be in contact with an outer surface of a side wall of the container when the container is placed in the machine, - a cooling unit arranged for cooling the heat exchange element and, - a stirring unit connectable to a stirring member and arranged for driving the stirring member in at least one rotational movement; - means for measuring the temperature of the product while being prepared, - torque sensing means (27a, 27b), connected to the stirring unit, for sensing the viscosity of the product during preparation, - a control unit for automatically setting output parameters according to input parameters received by the control unit and compared to threshold values stored in the unit, - wherein the output parameters comprises: at least one rotational velocity of the stirring member and the cooling power of the heat exchange element, - wherein the input parameters comprise the measured product temperature, the stirring time and the sensed torque value, - the control unit being arranged to control the preparation of the cooled product by storing output parameters and setting threshold values of input parameters according to different phases during the preparation of the cooled product, the output parameters and the threshold values of input parameters being specific to the type of cooled product to be prepared.
A closure assembly for a surgical device comprising: a latch unit including: a hook latch having a home position; a forward bias constraint; a rearward bias constraint; and a bias member extending between the forward bias constraint and the rearward bias constraint so that the bias member has a pre-load when the hook latch is in the home position; and a movement unit including a bar that is movable relative to the latch unit in a prescribed motion into contact with the latch unit to create a locked state, wherein the hook latch is movable by the bar in a first direction away from the home position, and wherein the hook latch is movable by the bar in a second direction away from the home position, and wherein a loading of the bias member is increased from the pre-load when the hook latch is moved in either the first direction away from the home position or the second direction away from the home position. a latch unit including: a hook latch having a home position; a forward bias constraint; a rearward bias constraint; and a bias member extending between the forward bias constraint and the rearward bias constraint so that the bias member has a pre-load when the hook latch is in the home position; and a hook latch having a home position; a forward bias constraint; a rearward bias constraint; and a bias member extending between the forward bias constraint and the rearward bias constraint so that the bias member has a pre-load when the hook latch is in the home position; and a movement unit including a bar that is movable relative to the latch unit in a prescribed motion into contact with the latch unit to create a locked state, wherein the hook latch is movable by the bar in a first direction away from the home position, and wherein the hook latch is movable by the bar in a second direction away from the home position, and wherein a loading of the bias member is increased from the pre-load when the hook latch is moved in either the first direction away from the home position or the second direction away from the home position.
A scratch abrasion tester, comprising: a pair of pulleys (7a, 7b); an annular belt member stretched between the pair of pulleys (7a, 7b); a rubber sample fixed to an outer surface of the belt member; a contact member with pointed tips that are able to come into contact with a surface of the rubber sample; a pressing mechanism that presses the tips of the contact member against the surface of the rubber sample; and at least one anchor member for causing a pressing load applied by the contact member, the pressing load depending on the weight of the at least one anchor member; a shape sensor configured to detect a cross-sectional shape of the surface of the rubber sample, and a calculation unit configured to obtain an amount of scratch abrasion of the rubber sample on the basis of detection data from the shape sensor; a running speed of the rubber sample being variable, the contact member including a plurality of types of contact members (4a, 4b, 4c) with different tip specifications, the contact member that presses against the surface of the rubber sample being discretionarily selected from the plurality of types of contact members (4a, 4b, 4c), and the selected contact member (4a, 4b, 4c) being pressed against the surface of the rubber sample. a pair of pulleys (7a, 7b); an annular belt member stretched between the pair of pulleys (7a, 7b); a rubber sample fixed to an outer surface of the belt member; a contact member with pointed tips that are able to come into contact with a surface of the rubber sample; a pressing mechanism that presses the tips of the contact member against the surface of the rubber sample; and at least one anchor member for causing a pressing load applied by the contact member, the pressing load depending on the weight of the at least one anchor member; a shape sensor configured to detect a cross-sectional shape of the surface of the rubber sample, and a calculation unit configured to obtain an amount of scratch abrasion of the rubber sample on the basis of detection data from the shape sensor;
A mixing system, the mixing system comprising: a piping for supplying a first fluid; a mixing part including a first mixing member and a second mixing member installed in the piping, installed in a flow direction of the first fluid, wherein the first mixing member and second mixing member each have a twisted-plate like shape, wherein the first mixing member includes a first outer side curved surface and a first inner side curved surface formed on both twisted side surfaces in which a first rear end is rotated at a predetermined angle from a first front end so as to be twisted, wherein the second mixing member includes a second outer side curved surface and a second inner side curved surface formed on both twisted side surfaces in which a second rear end is rotated at a predetermined angle from a second front end so as to be twisted, and wherein the first mixing member and the second mixing member are fixed to the inner circumferential surface of the piping and disposed to be spaced apart from each other to form an internal mixing space; wherein the front end of each of the first mixing member and the second mixing member is disposed in a direction that the first fluid is supplied, and the rear end thereof (112, 122) is disposed in a direction that the first fluid is discharged; and inner side curved surfaces (114, 124) formed on each side are disposed to face each other, characterized in a supply part for supplying a second fluid to the internal mixing space or the space between internal surface of the piping and each of the first mixing member and the second mixing member. a piping for supplying a first fluid; a mixing part including a first mixing member and a second mixing member installed in the piping, installed in a flow direction of the first fluid, wherein the first mixing member and second mixing member each have a twisted-plate like shape, wherein the first mixing member includes a first outer side curved surface and a first inner side curved surface formed on both twisted side surfaces in which a first rear end is rotated at a predetermined angle from a first front end so as to be twisted, wherein the second mixing member includes a second outer side curved surface and a second inner side curved surface formed on both twisted side surfaces in which a second rear end is rotated at a predetermined angle from a second front end so as to be twisted, and wherein the first mixing member and the second mixing member are fixed to the inner circumferential surface of the piping and disposed to be spaced apart from each other to form an internal mixing space; wherein the front end of each of the first mixing member and the second mixing member is disposed in a direction that the first fluid is supplied, and the rear end thereof (112, 122) is disposed in a direction that the first fluid is discharged; and inner side curved surfaces (114, 124) formed on each side are disposed to face each other, characterized in a supply part for supplying a second fluid to the internal mixing space or the space between internal surface of the piping and each of the first mixing member and the second mixing member.
A lens unit, comprising: a lens barrel having a barrel wall and, a snap groove surrounded and formed by the barrel wall; and a first lens group snap-fitted and secured in the snap groove, wherein the first lens group has a light-incident end on which external light incidents; the light-incident end protrudes from an end surface of the barrel wall; and the first lens group comprising at least one lens, wherein the first lens group comprises a first lens and a second lens connected with the first lens; the external light is incident from the first lens to the second lens; the second lens is snap-fitted and secured in the snap groove; and characterized in that the first lens is positioned such that its entire lens body is disposed above the end surface of the lens barrel; the second lens has a recessed portion with an annular rim portion formed on a surface of the second lens, a part of the first lens is disposed inside the recessed portion, and the annular rim portion surrounds the periphery of the first lens. a lens barrel having a barrel wall and, a snap groove surrounded and formed by the barrel wall; and a barrel wall and, a snap groove surrounded and formed by the barrel wall; and a first lens group snap-fitted and secured in the snap groove, wherein the first lens group has a light-incident end on which external light incidents; the light-incident end protrudes from an end surface of the barrel wall; and the first lens group comprising at least one lens, wherein the first lens group comprises a first lens and a second lens connected with the first lens; the external light is incident from the first lens to the second lens; the second lens is snap-fitted and secured in the snap groove; and characterized in that the first lens is positioned such that its entire lens body is disposed above the end surface of the lens barrel; the second lens has a recessed portion with an annular rim portion formed on a surface of the second lens, a part of the first lens is disposed inside the recessed portion, and the annular rim portion surrounds the periphery of the first lens. the first lens group has a light-incident end on which external light incidents; the light-incident end protrudes from an end surface of the barrel wall; and the first lens group comprising at least one lens, wherein the first lens group comprises a first lens and a second lens connected with the first lens; the external light is incident from the first lens to the second lens; the second lens is snap-fitted and secured in the snap groove; and characterized in that the first lens is positioned such that its entire lens body is disposed above the end surface of the lens barrel; the second lens has a recessed portion with an annular rim portion formed on a surface of the second lens, a part of the first lens is disposed inside the recessed portion, and the annular rim portion surrounds the periphery of the first lens.
A surface-treated copper foil provided with a rust-proofing treatment layer on both surfaces of a copper foil, wherein the copper foil contains one or two or more of small amount elements selected from carbon, sulfur, chlorine and nitrogen, and a sum amount thereof is 100 ppm or more, characterized in that the rust-proofing treatment layer is constituted by a zinc alloy, and the rust proofing treatment layer on each surface is a zinc alloy layer having a zinc amount of 20 mg/m 2 to 1,000 mg/m 2.