mhurhangee/ep-ind-claims huggingface dataset:
A security element for a security and/or valuable document, comprising a matrix based on an organic polymeric material, at least one electrically conductive pigment distributed in the matrix and at least one organic light-emitting semiconductor distributed in the matrix, which in presence of the electrically conductive pigment is capable of contactlessly exciting light emission, and the particle size of which is smaller than 200 nm, the organic light-emitting semiconductor not being encapsulated and being immediately surrounded by the matrix and embedded therein.
An iris diaphragm (111, 311, 711, 1011, 1211, 1311) comprising a stationary ring, a rotatable adjusting ring, and shutter blades (219, 619, 919), wherein said shutter blades comprise an opaque flat surface having a diaphragm edge, said diaphragm edges of said shutter blades forming a diaphragm aperture (112, 312) inside said stationary ring, wherein rotation of said adjusting ring moves said shutter blades inside said stationary ring, wherein at least one of said shutter blades comprises at least one transparent region (225, 625, 925) formed in the respective opaque surface, characterized in that said at least one transparent region is bigger than said opaque flat surface.
A data interaction method, comprising: creating a data model for each subsystem in a distributed base station, wherein the data model of each subsystem is used for representing a data processing mode of the subsystem, and data models of all subsystems of the distributed base station include at least two data models with a specified relationship, the specified relationship being that type information of the data models is the same but version information of the data models is different; creating a data model of a network element agent module according to the data models of all of the subsystems of the distributed base station, wherein the data model of the network element agent module is used for representing a data interaction mode between the network element agent module and each subsystem of the distributed base station; and implementing data interaction with the subsystems through the network element agent module according to the data model of the network element agent module, wherein the network element agent module is a device for implementing data interaction between the distributed base station and an external device. creating a data model for each subsystem in a distributed base station, wherein the data model of each subsystem is used for representing a data processing mode of the subsystem, and data models of all subsystems of the distributed base station include at least two data models with a specified relationship, the specified relationship being that type information of the data models is the same but version information of the data models is different; creating a data model of a network element agent module according to the data models of all of the subsystems of the distributed base station, wherein the data model of the network element agent module is used for representing a data interaction mode between the network element agent module and each subsystem of the distributed base station; and implementing data interaction with the subsystems through the network element agent module according to the data model of the network element agent module, wherein the network element agent module is a device for implementing data interaction between the distributed base station and an external device.
Vibrating device for the orderly rearrangement of folding boxes in a container for a discharging conveyor, provided with drive members, the upper surfaces of which define a horizontal transport plane, said vibrating device comprising: - a moving support configured to support a container loaded with folding boxes, the support having a contact surface intended to come into contact with the container, and - at least one controllable actuator (16a, 16b, 16c, 16d) having a movable end connected to the support in order to move the support between: - a retracted position in which the contact surface is positioned below the horizontal transport plane, allowing contact between the container and the drive members, and a deployed position in which the contact surface is positioned above the horizontal transport plane, preventing contact between the container and the drive members, the actuator (16a, 16b, 16c, 16d) also being configured to vibrate the support about the deployed position in order to reorder the arrangement of the folding boxes contained in the container, said vibrating device being characterised in that: the controllable actuator (16a, 16b, 16c, 16d) has an electrically-controlled pneumatic jack, having a movable rod, the end of which is connected to the support, said electrically-controlled jack being configured to allow, by its electronic controlling, both the deployment and the vibration of said support. - a moving support configured to support a container loaded with folding boxes, the support having a contact surface intended to come into contact with the container, and - at least one controllable actuator (16a, 16b, 16c, 16d) having a movable end connected to the support in order to move the support between: - a retracted position in which the contact surface is positioned below the horizontal transport plane, allowing contact between the container and the drive members, and a deployed position in which the contact surface is positioned above the horizontal transport plane, preventing contact between the container and the drive members, the actuator (16a, 16b, 16c, 16d) also being configured to vibrate the support about the deployed position in order to reorder the arrangement of the folding boxes contained in the container,
A polyamide46 multifilament yarn is characterized by having a free shrinkage value which is determined by the formula; I o − I 1 / I o × 100 where I o is the length of yarn sample that is conditioned under 20 °C and 65% relative humidity for 4 hours under a tension of 0.05 gram/denier and I 1 is the length of the same sample under the same tension after being heated in an oven at 180±2 °C for 30 minutes in unstretched state followed by conditioning at 20 °C and 65% relative humidity for 4 hours, in between 6-8%, a shrink force value according to ASTM D 5591 which is higher than 0.35 gram/denier and an elongation at break value according to ASTM D 885 in between 15% and 20%.
A quench ring for ejecting a quenchant onto a workpiece passing through the quench ring, the quench ring comprising: an outer ring element having at least one exterior opening for connection to a supply of quenchant to an interior region of the outer ring element; an inner ring element at least partially inserted into the outer ring element; a quench ring plenum formed from the interior region of the outer ring element in combination with an interior region of the inner ring element for receiving the supply of quenchant from the at least one exterior opening; and an outlet passage from the quench ring plenum for ejecting quenchant from the quench ring plenum, the outlet passage forming an annular opening between an adjacent facing edges of the outer and inner ring elements, the adjacent facing edges of the outer and inner ring elements having conically shaped walls, and the quench ring plenum and outlet passage having an adjustable volume controlled by an adjustable separating distance between the inner and outer ring elements along a central axis (Z r) of the quench ring to eject the quenchant from the quench ring in a conical volume onto the workpiece in a conical volume; and wherein a plurality of fasteners joining the inner and outer ring elements are arranged to control the adjustable separating distance between the inner and outer ring elements. an outer ring element having at least one exterior opening for connection to a supply of quenchant to an interior region of the outer ring element; an inner ring element at least partially inserted into the outer ring element; a quench ring plenum formed from the interior region of the outer ring element in combination with an interior region of the inner ring element for receiving the supply of quenchant from the at least one exterior opening; and an outlet passage from the quench ring plenum for ejecting quenchant from the quench ring plenum, the outlet passage forming an annular opening between an adjacent facing edges of the outer and inner ring elements, the adjacent facing edges of the outer and inner ring elements having conically shaped walls, and the quench ring plenum and outlet passage having an adjustable volume controlled by an adjustable separating distance between the inner and outer ring elements along a central axis (Z r) of the quench ring to eject the quenchant from the quench ring in a conical volume onto the workpiece in a conical volume; and wherein a plurality of fasteners joining the inner and outer ring elements are arranged to control the adjustable separating distance between the inner and outer ring elements.
A non-transitory machine-readable storage medium comprising instructions executable by a processing resource (210, 410) of a computing device (200, 400) for recognizing embedded information from images to: recognize a first barcode (810A, 910A) from a first image (810, 910); recognize (1010, 1130) a first machine-readable watermark (810B, 910B) based on the first barcode (810A, 910A) by determining a watermark position in the first image of the first machine-readable watermark (810B, 910B) based on a barcode position of the first barcode (810A, 910A), wherein a first edge of the first barcode is adjacent to a first edge of the first machine-readable watermark; decode (1000, 1120) the first barcode (810A, 910A) to obtain a first group identifier; decode (1020, 1140) the first machine-readable watermark (810B, 910B) to obtain a first reusable watermark identifier; combine the first reusable watermark identifier and the first group identifier to generate a distinct identifier; and access (1030, 1150) a first payload associated with the first machine-readable watermark (810B, 910B) based on the distinct identifier. recognize a first barcode (810A, 910A) from a first image (810, 910); recognize (1010, 1130) a first machine-readable watermark (810B, 910B) based on the first barcode (810A, 910A) by determining a watermark position in the first image of the first machine-readable watermark (810B, 910B) based on a barcode position of the first barcode (810A, 910A), wherein a first edge of the first barcode is adjacent to a first edge of the first machine-readable watermark; decode (1000, 1120) the first barcode (810A, 910A) to obtain a first group identifier; decode (1020, 1140) the first machine-readable watermark (810B, 910B) to obtain a first reusable watermark identifier; combine the first reusable watermark identifier and the first group identifier to generate a distinct identifier; and access (1030, 1150) a first payload associated with the first machine-readable watermark (810B, 910B) based on the distinct identifier.
An adhesive composition comprising, per 100 parts by weight of the total dry adhesive composition: 50 to 99 parts by weight of a first elastomeric polymer; 1 to 50 parts by weight of a low molecular weight polymeric additive having a number average molecular weight (Mn) of 50,000 to 500,000 Daltons, wherein the first elastomeric polymer and the low molecular weight polymeric additive form an acid-base interaction, wherein the term "acid-base interaction" indicates that the elastomeric polymer has a plurality of acidic functional groups and the low molecular weight polymeric additive has a plurality of basic functional groups, or that the elastomeric polymer has a plurality of basic functional groups and the low molecular weight polymeric additive has a plurality of acidic functional groups; and the refractive index of the adhesive composition as measured using a Metricon 2010/M Prism Coupler is higher than the refractive index of the first elastomeric polymer. 50 to 99 parts by weight of a first elastomeric polymer; 1 to 50 parts by weight of a low molecular weight polymeric additive having a number average molecular weight (Mn) of 50,000 to 500,000 Daltons, wherein the first elastomeric polymer and the low molecular weight polymeric additive form an acid-base interaction, wherein the term "acid-base interaction" indicates that the elastomeric polymer has a plurality of acidic functional groups and the low molecular weight polymeric additive has a plurality of basic functional groups, or that the elastomeric polymer has a plurality of basic functional groups and the low molecular weight polymeric additive has a plurality of acidic functional groups; and the refractive index of the adhesive composition as measured using a Metricon 2010/M Prism Coupler is higher than the refractive index of the first elastomeric polymer.
A DC commutator motor comprising: a yoke; a field magnet positioned at an inner peripheral side of the yoke; an armature rotatably supported at an inner peripheral side of the field magnet with a gap therebetween; a shaft positioned on a central axis of the armature; a plurality of commutator segments positioned in a circumferential direction of the shaft; a plurality of armature slots positioned on an outer periphery of the armature; an upper coil wound the number of turns Na through two of the armature slots at an opening side of each of the two slots, the two of the armature slots being located apart from each other with the predetermined number of armature slots therebetween; and a lower coil connected in parallel with the upper coil, the lower coil being wound the number of turns Nb through the two of the armature slots at a bottom side of each of the two slots, wherein the number of turns Na is smaller than the number of turns Nb. a yoke; a field magnet positioned at an inner peripheral side of the yoke; an armature rotatably supported at an inner peripheral side of the field magnet with a gap therebetween; a shaft positioned on a central axis of the armature; a plurality of commutator segments positioned in a circumferential direction of the shaft; a plurality of armature slots positioned on an outer periphery of the armature; an upper coil wound the number of turns Na through two of the armature slots at an opening side of each of the two slots, the two of the armature slots being located apart from each other with the predetermined number of armature slots therebetween; and a lower coil connected in parallel with the upper coil, the lower coil being wound the number of turns Nb through the two of the armature slots at a bottom side of each of the two slots, wherein the number of turns Na is smaller than the number of turns Nb.
A fault detection circuit comprising: a system controller including at least one memory device and configured to control at least one electrical system; and a fault detection controller in signal communication with the system controller, the fault detection controller configured to detect at least one fault of the system controller and to control operation of the system controller based on comparison between a frequency of detected faults corresponding to the system controller and at least one frequency threshold value, characterised in that the fault detection controller is configured to allow restarting of the system controller an unlimited number of times in response to the frequency of system restarts due to detected faults being less than or equal to the frequency threshold value. a system controller including at least one memory device and configured to control at least one electrical system; and a fault detection controller in signal communication with the system controller, the fault detection controller configured to detect at least one fault of the system controller and to control operation of the system controller based on comparison between a frequency of detected faults corresponding to the system controller and at least one frequency threshold value, characterised in that the fault detection controller is configured to allow restarting of the system controller an unlimited number of times in response to the frequency of system restarts due to detected faults being less than or equal to the frequency threshold value.
A trimeric antigen binding molecule comprising three fusion polypeptides or a pharmaceutical composition thereof for use in the treatment of cancer, wherein each of the three fusion polypeptides comprise at least one antigen binding moiety fused to a trimerization domain derived from human cartilage matrix protein (CMP, SEQ ID NO.: 1), wherein said trimerization domain is capable of mediating stable association of the trimeric antigen binding molecule, wherein said trimerization domain consists of the sequence of SEQ ID NO.:2, wherein said fusion polypeptides each comprise one antigen binding moiety fused to said trimerization domain, and wherein said antigen binding moiety is a Fab molecule.
A laser processing method of cutting an object to be processed comprising a substrate and a multilayer part, formed on a front face of the substrate, including a functional device along a line to cut, the method comprising the steps of: attaching a protective member to a front face of the multilayer part; irradiating the substrate with laser light while using a rear face of the substrate as a laser light entrance surface and locating a converging point within the substrate, so as to form a modified region to become a starting point region for cutting within the substrate along the line to cut in the substrate, thereby generating a state with a fracture reaching at least the front face of the substrate from a front-side end part of the modified region; attaching an expandable member to after generating the fracture; and cutting the object along the line to cut by expanding the expandable member after attaching the expandable member; characterized in that the state where the fracture reaching the front face of the substrate from the front-side end part of the modified region is construed as a state where the substrate is harder to cut than in a state where the fracture reaching the rear face of the substrate form the rear-side end part of the modified region is generated. attaching a protective member to a front face of the multilayer part; irradiating the substrate with laser light while using a rear face of the substrate as a laser light entrance surface and locating a converging point within the substrate, so as to form a modified region to become a starting point region for cutting within the substrate along the line to cut in the substrate, thereby generating a state with a fracture reaching at least the front face of the substrate from a front-side end part of the modified region; attaching an expandable member to after generating the fracture; and cutting the object along the line to cut by expanding the expandable member after attaching the expandable member; characterized in that the state where the fracture reaching the front face of the substrate from the front-side end part of the modified region is construed as a state where the substrate is harder to cut than in a state where the fracture reaching the rear face of the substrate form the rear-side end part of the modified region is generated.
Sound transducer, comprising a diaphragm and at least one piezo actuator (20a; 40) with two end faces (23a, 24a) lying opposite one another and arranged in the direction of oscillation of the piezo actuator (20a; 40), which is arranged in operative connection with the diaphragm, wherein the direction of oscillation of the piezo actuator (20a; 40) is arranged at least substantially perpendicular to the direction of oscillation of the diaphragm, wherein the sound transducer also has two lever elements (16a, 17a) with abutting edges (31, 32), wherein the lever elements are arranged between the diaphragm and the piezo actuator (20a; 40), connect the diaphragm to the piezo actuator (20a; 40) and are designed to convert oscillations of the piezo actuator (20a; 40) into oscillations of the diaphragm and vice versa, and wherein a clamping connection is formed between in each case one of the two lever elements (16a; 17a) and the piezo actuator (20a; 40), wherein the respective clamping connection is formed in the region between in each case one of the two end faces (23a, 24a) of the piezo actuator (20a; 40) arranged in the direction of oscillation of the piezo actuator (20a; 40) and the respective lever element (16a; 17a), and in that, by means of the two lever elements (16a; 17a), the piezo actuator (20a; 40) is arranged under an axial pre-tensioning force extending in the direction of oscillation of the piezo actuator (20a; 40), characterized in that in the region of the two end faces (23a, 24a), the piezo actuator (20a; 40) is provided in each case with a concavely formed contact surface (27, 28), wherein the two contact surfaces (27, 28) extend symmetrically in relation to a central plane of the piezo actuator (20a; 40), in which a linear contact takes place between the abutting edges (31, 32) of the lever elements (16a; 17a) on the piezo actuator (20a; 40).
A surface cleaning apparatus for cleaning a surface, comprising: a recovery tank having a lower portion; an extraction nozzle in fluid communication with the recovery tank; a motor/fan assembly in fluid communication with the extraction nozzle and the recovery tank to generate a working air flow to transport debris-containing fluid including air and liquid from the extraction nozzle into the recovery tank; an air/liquid separator for separating liquid from air in the debris-containing fluid; and characterized by a mechanical coupling removably coupling the air/liquid separator to the lower portion of the recovery tank, wherein the mechanical coupling can be operated to selectively detach the air/liquid separator from the recovery tank for removal of the air/liquid separator from the lower portion of the recovery tank. a recovery tank having a lower portion; an extraction nozzle in fluid communication with the recovery tank; a motor/fan assembly in fluid communication with the extraction nozzle and the recovery tank to generate a working air flow to transport debris-containing fluid including air and liquid from the extraction nozzle into the recovery tank; an air/liquid separator for separating liquid from air in the debris-containing fluid; and characterized by a mechanical coupling removably coupling the air/liquid separator to the lower portion of the recovery tank, wherein the mechanical coupling can be operated to selectively detach the air/liquid separator from the recovery tank for removal of the air/liquid separator from the lower portion of the recovery tank.
A ball nose end mill insert comprising an insert body having an axial center axis, two opposed substantially flat insert side surfaces (23, 24), a peripheral surface joining the two insert side surfaces (23, 24), the peripheral surface including two arcuate surfaces (26, 27) at a first axially forward end of the insert and an insert support surface at a second axially rearward end of the insert, the arcuate surfaces (26, 27) extending axially rearward from an axial center area of the first axially forward end and being positioned symmetrically on opposite sides in relation to the axial center area of the insert, peripheral side surfaces (32, 33) adjoining the arcuate surfaces (26, 27), an insert through hole intersecting said insert side surfaces (23, 24), said insert support surface comprising an axial insert support surface having surface portions (34A, 34B) that, as seen in a front view, are located on opposite sides of the axial center axis of the insert, and a radial insert support surface, characterized in that said axial insert support surface and said radial insert support surface together form an acute angle (β).