mhurhangee/ep-ind-claims huggingface dataset:
A female part of an animal-identifying device, comprising a cavity intended to receive a head of a male part of said animal-identifying device, characterized in that said cavity comprises a blocking element provided within said cavity, intended to hold said head inside said cavity, said blocking element comprising a base and at least two resilient claws extending from said base towards the entrance of said cavity, said base of the blocking element having a cylindrical or partially spherical shape, said claws of said blocking element being shaped as a truncated cone whose smallest diameter corresponds to the diameter of said base and being movable between several positions, comprising: - a resting position before insertion of the head into the cavity, in which the claws are relaxed, - an insertion position, in which the claws are stressed into opening, and - a blocking position after insertion of the head into the cavity, enabling blocking of said head inside said cavity. characterized in that said cavity comprises a blocking element provided within said cavity, intended to hold said head inside said cavity, said blocking element comprising a base and at least two resilient claws extending from said base towards the entrance of said cavity, said base of the blocking element having a cylindrical or partially spherical shape, said claws of said blocking element being shaped as a truncated cone whose smallest diameter corresponds to the diameter of said base and being movable between several positions, comprising: - a resting position before insertion of the head into the cavity, in which the claws are relaxed, - an insertion position, in which the claws are stressed into opening, and - a blocking position after insertion of the head into the cavity, enabling blocking of said head inside said cavity. - a resting position before insertion of the head into the cavity, in which the claws are relaxed, - an insertion position, in which the claws are stressed into opening, and - a blocking position after insertion of the head into the cavity, enabling blocking of said head inside said cavity.
A continuous casting machine comprising: a mold providing a slab; and a plurality of segments configured to guide the slab through a strand guide and cool the slab, wherein each of the segments comprises an inner frame, an outer frame spaced apart from the inner frame, and a plurality of rolls (152, 155) disposed on the inner and outer frames through roll supports, and the number N fixed of the rolls disposed on the outer frame is set to be different from the number N loosed of the rolls disposed on the inner frame so as to reduce mold level hunting caused by a slab shape, wherein the outer frame has an average roll pitch P avg,fixed different from an average roll pitch P avg,loosed of the inner frame, wherein the outer frame has a segment length greater than that of the inner frame, and the outer and inner frames are disposed in a bow zone of the strand guide, wherein the average roll pitch P avg,fixed of the outer frame and the average roll pitch P avg,loosed of the inner frame satisfy the following formula: P avg, loosed P avg, fixed = 1 − t slab r * N fixed N loosed where t slab refers to a slab thickness, and r refers a curvature of radius of the strand guide. a mold providing a slab; and a plurality of segments configured to guide the slab through a strand guide and cool the slab, wherein each of the segments comprises an inner frame, an outer frame spaced apart from the inner frame, and a plurality of rolls (152, 155) disposed on the inner and outer frames through roll supports, and the number N fixed of the rolls disposed on the outer frame is set to be different from the number N loosed of the rolls disposed on the inner frame so as to reduce mold level hunting caused by a slab shape, wherein the outer frame has an average roll pitch P avg,fixed different from an average roll pitch P avg,loosed of the inner frame, wherein the outer frame has a segment length greater than that of the inner frame, and the outer and inner frames are disposed in a bow zone of the strand guide, wherein the average roll pitch P avg,fixed of the outer frame and the average roll pitch P avg,loosed of the inner frame satisfy the following formula: P avg, loosed P avg, fixed = 1 − t slab r * N fixed N loosed where t slab refers to a slab thickness, and r refers a curvature of radius of the strand guide.
Attachment for a device for generating an airflow, preferably a warm airflow, or for delivering a fluid, which attachment is adapted to be introduced at least in sections into an external ear canal of a human or animal ear, wherein the attachment comprises - a connecting piece for connecting to the device, and - a tongue-like guide vane, projecting from the connecting piece, for guiding air flowing out of the device or fluid delivered by the device, having a guide vane base, and wherein the guide vane is arranged downstream of the connecting piece in the direction of flow of the air stream or fluid, wherein, when a longitudinal cross-section of the attachment is considered, the guide vane base intersects a longitudinal axis of the attachment, which longitudinal axis extends through the center of a cross-section of the connecting piece which is normal to the longitudinal cross-section, characterized in that the guide vane base is twisted with respect to a first longitudinal section of the guide vane at least in the region of a second longitudinal section of the guide vane. - a connecting piece for connecting to the device, and - a tongue-like guide vane, projecting from the connecting piece, for guiding air flowing out of the device or fluid delivered by the device, having a guide vane base,
A backlight module for a display assembly, the backlight module comprising a display region for providing light to the display assembly and a non-display region not providing light to the display assembly, the backlight module further comprising: a light guide plate; a plurality of light sources, arranged on a side edge of the light guide plate and spaced apart from each other along a width direction of the light guide plate, wherein a plurality of gaps are defined between every two adjacent light sources; a light homogenizer, arranged on the light guide plate, covering a region of a top surface of the light guide plate; a flexible circuit board, partially arranged on a region of the top surface of the light guide plate uncovered by the light homogenizer, wherein a reservation gap is defined between the flexible circuit board and the light homogenizer; and a light-shielding layer, arranged in the non-display region of the backlight module and configured to shield light emitted by the plurality of light sources and escaping from the reservation gap, the backlight module being characterized in that the light-shielding layer comprises a plurality of first light-shielding portions and a plurality of second light-shielding portions, the plurality of first light-shielding portions are arranged in regions corresponding to the plurality of light sources, the plurality of second light-shielding portions are arranged in regions corresponding to the plurality of gaps, and a thickness of the plurality of first light-shielding portions is greater than a thickness of the plurality of second light-shielding portions. a light guide plate; a plurality of light sources, arranged on a side edge of the light guide plate and spaced apart from each other along a width direction of the light guide plate, wherein a plurality of gaps are defined between every two adjacent light sources; a light homogenizer, arranged on the light guide plate, covering a region of a top surface of the light guide plate; a flexible circuit board, partially arranged on a region of the top surface of the light guide plate uncovered by the light homogenizer, wherein a reservation gap is defined between the flexible circuit board and the light homogenizer; and a light-shielding layer, arranged in the non-display region of the backlight module and configured to shield light emitted by the plurality of light sources and escaping from the reservation gap, the backlight module being characterized in that the light-shielding layer comprises a plurality of first light-shielding portions and a plurality of second light-shielding portions, the plurality of first light-shielding portions are arranged in regions corresponding to the plurality of light sources, the plurality of second light-shielding portions are arranged in regions corresponding to the plurality of gaps, and a thickness of the plurality of first light-shielding portions is greater than a thickness of the plurality of second light-shielding portions.
A desktop computing system, comprising: a cylindrical housing that defines a cylindrical volume having a longitudinal axis; a computing engine positioned within the cylindrical volume, the computing engine having an operational component; a thermal management system closely coupled with the computing engine wherein the thermal management system responds directly to a change in an activity level of the computing engine in real time and comprises an air mover configured to move an amount of air through the cylindrical volume, a structural core positioned within the cylindrical volume comprising a heat sink comprising a plurality of planar walls (610, 612, 614) that define a central thermal zone having a triangular cross section and a cooling fin that spans the central thermal zone from a first planar wall on which is mounted the operational component to a second planar wall and that transfers heat from the operational component to a portion of the amount of air moving through the central thermal zone of the cylindrical volume. a cylindrical housing that defines a cylindrical volume having a longitudinal axis; a computing engine positioned within the cylindrical volume, the computing engine having an operational component; a thermal management system closely coupled with the computing engine wherein the thermal management system responds directly to a change in an activity level of the computing engine in real time and comprises an air mover configured to move an amount of air through the cylindrical volume, a structural core positioned within the cylindrical volume comprising a heat sink comprising a plurality of planar walls (610, 612, 614) that define a central thermal zone having a triangular cross section and a cooling fin that spans the central thermal zone from a first planar wall on which is mounted the operational component to a second planar wall and that transfers heat from the operational component to a portion of the amount of air moving through the central thermal zone of the cylindrical volume.
Method for the manufacture of a plastic component, in particular a cushioning element for sports apparel, comprising: a. loading a mold (no) with a first material which comprises particles of an expanded material; and b. fusing the surfaces of the particles by supplying energy, c. wherein the energy is supplied in the form of at least one electromagnetic field (130; 135; 140), wherein d. the particles further comprise an energy absorbing material, which absorbs the energy supplied by the at least one electromagnetic field (130; 135; 140) such that the energy absorbing material contributes to the fusing of the surfaces of the particles, and characterized in that e. the average amount of energy absorbing material per particle varies within the mold. a. loading a mold (no) with a first material which comprises particles of an expanded material; and b. fusing the surfaces of the particles by supplying energy, c. wherein the energy is supplied in the form of at least one electromagnetic field (130; 135; 140), wherein d. the particles further comprise an energy absorbing material, which absorbs the energy supplied by the at least one electromagnetic field (130; 135; 140) such that the energy absorbing material contributes to the fusing of the surfaces of the particles, and characterized in that e. the average amount of energy absorbing material per particle varies within the mold.
Seat unit (2, 26) having at least one seat and a supporting arm, wherein the seat is fixed on the supporting arm using supporting elements, wherein each of the supporting elements in each case comprises at least one seat-fixing element, by means of which the respective supporting element is securely connected to the seat, and wherein the supporting elements are arranged in such a manner that the seat-fixing elements are arranged outside the supporting arm, characterized in that the supporting arm has a plurality of slot-shaped recesses, and each of the supporting elements is in each case partially inserted in at least one of the recesses, and each of the supporting elements in each case has a rib which can be plugged in and which is in each case plugged at least into one of the recesses of the supporting arm. wherein the seat is fixed on the supporting arm using supporting elements, wherein each of the supporting elements in each case comprises at least one seat-fixing element, by means of which the respective supporting element is securely connected to the seat, and wherein the supporting elements are arranged in such a manner that the seat-fixing elements are arranged outside the supporting arm, characterized in that the supporting arm has a plurality of slot-shaped recesses, and each of the supporting elements is in each case partially inserted in at least one of the recesses, and each of the supporting elements in each case has a rib which can be plugged in and which is in each case plugged at least into one of the recesses of the supporting arm.
A method for providing antigen-specific lymphoid cells comprising the steps: (a) providing a single antigen-reactive T cell from a sample comprising T cells, wherein said sample is obtained from a subject previously exposed to said antigen and wherein said single antigen-reactive T cell is isolated from the sample comprising T cells using flow cytometry; (b) providing a nucleic acid encoding a T cell receptor having the specificity of the T cell receptor of said single antigen-reactive T cell; and (c) introducing said nucleic acid into a lymphoid cell to provide said antigen-specific lymphoid cells. (a) providing a single antigen-reactive T cell from a sample comprising T cells, wherein said sample is obtained from a subject previously exposed to said antigen and wherein said single antigen-reactive T cell is isolated from the sample comprising T cells using flow cytometry; (b) providing a nucleic acid encoding a T cell receptor having the specificity of the T cell receptor of said single antigen-reactive T cell; and (c) introducing said nucleic acid into a lymphoid cell to provide said antigen-specific lymphoid cells.
A discharge protection circuit (250, 251, 400, 401, 430, 431), comprising: a switch having a capacitive coupling between a gate and a drain of the switch, such that, in use, a capacitively coupled current flows between the gate and the drain; a gate network comprising at least the gate of the switch, a gate control element and a resistor connected between the gate and the gate control element; an electrostatic discharge, ESD, rail (265, 281); wherein the ESD rail is coupled to the gate either directly or via a diode, such that, in use, at least a part of an electrostatic discharge current is sunk via the capacitive coupling and the gate network; wherein the ESD rail is coupled to a ground via an ESD protection element. a switch having a capacitive coupling between a gate and a drain of the switch, such that, in use, a capacitively coupled current flows between the gate and the drain; a gate network comprising at least the gate of the switch, a gate control element and a resistor connected between the gate and the gate control element; an electrostatic discharge, ESD, rail (265, 281); wherein the ESD rail is coupled to the gate either directly or via a diode, such that, in use, at least a part of an electrostatic discharge current is sunk via the capacitive coupling and the gate network; wherein the ESD rail is coupled to a ground via an ESD protection element.
A system for measuring hot or cold aisle containment air leakage in a data center, the system comprising: a plurality of equipment enclosures arranged in a first row and a second row; a plurality of panels cooperatively arranged with the plurality of equipment enclosures to form an air containment region; a conduit mounted within the air containment region and sealed at each end, the conduit having an orifice and a plurality of openings distributed at uniform intervals along a length of the conduit, the conduit defining an air passage therein which is sealed by end caps; a differential air pressure detection device coupled to the orifice and configured to detect a difference between an air pressure within the conduit and ambient air pressure outside of the air containment region; and an air flow measurement device configured to calculate an infiltration air flow rate of the air containment region based on the difference between the air pressure within the conduit and the ambient air pressure, wherein an orifice is disposed in one end cap to provide a port for coupling the conduit to an air pressure detector, and wherein the conduit extends along the entire interior length of the air containment region, the conduit having an internal air pressure which corresponds to an average air pressure across the length of the air containment region. a plurality of equipment enclosures arranged in a first row and a second row; a plurality of panels cooperatively arranged with the plurality of equipment enclosures to form an air containment region; a conduit mounted within the air containment region and sealed at each end, the conduit having an orifice and a plurality of openings distributed at uniform intervals along a length of the conduit, the conduit defining an air passage therein which is sealed by end caps;
A compliant jumper tube fitting assembly, comprising: an outer housing including a first opening; an inner housing including a second opening defined by an annular wall; and an end fitting; wherein the inner housing is configured to generate a seal between an inner diameter wall of the outer housing and an outer diameter wall of the inner housing in response to inserting the inner housing into a mouth end of the outer housing, wherein the inner housing is configured to receive the end fitting and generate a seal between an inner diameter wall of the inner housing in response to inserting the end fitting into the inner housing, and wherein a fluid communication between the first opening, the second opening, and the end fitting is enabled in response to inserting the end fitting into the inner housing, wherein the outer housing includes a retaining assembly configured to inhibit the inner housing from translating relatively outward of the mouth end, wherein the outer housing comprises a first annular cylindrical structure, wherein the first opening is defined by a base wall, and wherein the inner housing comprises a second annular cylindrical structure, wherein: the outer diameter wall of the inner housing comprises a first seal channel proximate the annular wall, and/or the outer diameter wall includes a first arcuate transition portion and a second arcuate transition portion. an outer housing including a first opening; an inner housing including a second opening defined by an annular wall; and an end fitting; wherein the inner housing is configured to generate a seal between an inner diameter wall of the outer housing and an outer diameter wall of the inner housing in response to inserting the inner housing into a mouth end of the outer housing, wherein the inner housing is configured to receive the end fitting and generate a seal between an inner diameter wall of the inner housing in response to inserting the end fitting into the inner housing, and wherein a fluid communication between the first opening, the second opening, and the end fitting is enabled in response to inserting the end fitting into the inner housing, wherein the outer housing includes a retaining assembly configured to inhibit the inner housing from translating relatively outward of the mouth end, wherein the outer housing comprises a first annular cylindrical structure, wherein the first opening is defined by a base wall, and wherein the inner housing comprises a second annular cylindrical structure, the outer diameter wall of the inner housing comprises a first seal channel proximate the annular wall, and/or the outer diameter wall includes a first arcuate transition portion and a second arcuate transition portion.
A method of batching supplied objects in batches in such a manner that a batch fulfils predefined criteria, e.g. as regards the total weight range and optionally the number of objects, weight, orientation and/or type(s) of objects, wherein - the weight of each, individual object is determined - the objects are transported by means for object transport, - a selective transferral of the objects from said means for object transport to batching means is performed by means of one or more handling means of the robot type (20, 22, 24), said handling means of the robot type (20, 22, 24) being handling means of the type designed for selectively gripping or picking up an object and for depositing said object at a selected position, whereby a batch of objects is produced in consideration of said predefined criteria, and wherein said batches of objects are produced on batching means that are moved around said one or more handling means of the robot type (20, 22, 24). - the weight of each, individual object is determined - the objects are transported by means for object transport, - a selective transferral of the objects from said means for object transport to batching means is performed by means of one or more handling means of the robot type (20, 22, 24), said handling means of the robot type (20, 22, 24) being handling means of the type designed for selectively gripping or picking up an object and for depositing said object at a selected position, whereby a batch of objects is produced in consideration of said predefined criteria,
A method for transmitting safety related information from an elevator car comprising: receiving at a communication module safety related information from at least one device producing safety related information; transmitting said received information as a first signal by a first wireless transmitter; producing a second signal based on said received information; and transmitting said second signal by a second wireless transmitter, characterized by transmitting said second signal using transmission over a wireless energy charging channel. receiving at a communication module safety related information from at least one device producing safety related information; transmitting said received information as a first signal by a first wireless transmitter; producing a second signal based on said received information; and transmitting said second signal by a second wireless transmitter, characterized by transmitting said second signal using transmission over a wireless energy charging channel.
A fluorescent particle comprising: a gold nanoparticle; a silica shell covering the gold nanoparticle; and lanthanide group complex particles dispersed in the silica shell, wherein each of the lanthanide group complex particles includes a lanthanide group ion; a ligand bonded to the lanthanide group ion and including phosphorus; and a ligand bonded to the lanthanide group ion and having a beta diketone functional group. a gold nanoparticle; a silica shell covering the gold nanoparticle; and lanthanide group complex particles dispersed in the silica shell, wherein each of the lanthanide group complex particles includes a lanthanide group ion; a ligand bonded to the lanthanide group ion and including phosphorus; and a ligand bonded to the lanthanide group ion and having a beta diketone functional group.