mhurhangee/ep-ind-claims huggingface dataset:
A method which transmits signaling information for reception of a broadcast service in a digital broadcasting system, comprising: generating signaling information that includes a network information table (522a, 622a, 722a) indicating information about a transport network over which broadcast service data is transmitted, and a service information table (522b, 622b, 722b) indicating at least one broadcast service and information about at least one physical layer pipe, PLP, mapped to the at least one broadcast service; and transmitting the signaling information in a generic stream encapsulation, GSE, packet (300, 520, 620, 720) using orthogonal frequency division multiplexing, OFDM, wherein the network information table includes: a field indicating a transmission band of the radio frequency, a field indicating a guard interval between OFDM cells, a field indicating an identifier of a clock used in the system, and wherein the service information table includes: a field indicating a context identification, CID, of a compressed internet protocol, IP, stream, and wherein the GSE packet includes a label type indicator which indicates a type of a label which is used by a receiver of the GSE packet to determine whether to process the GSE packet, and a value of the label type indicator indicates one of: the label having a length of 6 bytes, the label having a length of 3 bytes, no label being present, and label re-use being active. generating signaling information that includes a network information table (522a, 622a, 722a) indicating information about a transport network over which broadcast service data is transmitted, and a service information table (522b, 622b, 722b) indicating at least one broadcast service and information about at least one physical layer pipe, PLP, mapped to the at least one broadcast service; and transmitting the signaling information in a generic stream encapsulation, GSE, packet (300, 520, 620, 720) using orthogonal frequency division multiplexing, OFDM, a field indicating a transmission band of the radio frequency, a field indicating a guard interval between OFDM cells, a field indicating an identifier of a clock used in the system, and wherein the service information table includes: a field indicating a context identification, CID, of a compressed internet protocol, IP, stream, and wherein the GSE packet includes a label type indicator which indicates a type of a label which is used by a receiver of the GSE packet to determine whether to process the GSE packet, and a value of the label type indicator indicates one of: the label having a length of 6 bytes, the label having a length of 3 bytes, no label being present, and label re-use being active. a field indicating a context identification, CID, of a compressed internet protocol, IP, stream, and wherein the GSE packet includes a label type indicator which indicates a type of a label which is used by a receiver of the GSE packet to determine whether to process the GSE packet, and a value of the label type indicator indicates one of: the label having a length of 6 bytes, the label having a length of 3 bytes, no label being present, and label re-use being active.
An organic light emitting device, having a layered structure, comprising: - a substrate (7.1; 13.1), - a bottom electrode (7.2; 13.2), - a top electrode (7.11; 13.11), wherein the bottom electrode (7.2; 13.2) is closer to the substrate (7.1; 13.1) than the top electrode (7.11; 13.11), - an electrically active region, the electrically active region comprising one or more organic layers and being provided between and in electrical contact with the bottom electrode (7.2; 13.2) and the top electrode (7.11; 13.11), - a light emitting region (7.6, 7.7; 13.6, 13.7) provided in the electrically active region, and - a roughening layer (7.9; 13.9), the roughening layer (7.9; 13.9) being provided as non-closed layer in direct contact with an underlying layer (7.8; 13.8) and providing an electrode roughness to the top electrode (7.11; 13.11) by roughening the top electrode (7.11; 13.11) on at least one of an inner side facing the electrically active region and an outer side of the top electrode facing away from the electrically active region, wherein the roughening layer (7.9; 13.9) is provided between the light emitting region and the top electrode (7.11; 13.11), characterized in that the roughening layer (7.9; 13.9) has a material different from a material of the underlying layer (7.8; 13.8) of the roughening layer (7.9; 13.9) and comprises a plurality of separated particles having a lateral dimension of from 50 nm to 500 nm and a height of at least 3 nm but less than 50 nm. - a substrate (7.1; 13.1), - a bottom electrode (7.2; 13.2), - a top electrode (7.11; 13.11), wherein the bottom electrode (7.2; 13.2) is closer to the substrate (7.1; 13.1) than the top electrode (7.11; 13.11), - an electrically active region, the electrically active region comprising one or more organic layers and being provided between and in electrical contact with the bottom electrode (7.2; 13.2) and the top electrode (7.11; 13.11), - a light emitting region (7.6, 7.7; 13.6, 13.7) provided in the electrically active region, and - a roughening layer (7.9; 13.9), the roughening layer (7.9; 13.9) being provided as non-closed layer in direct contact with an underlying layer (7.8; 13.8) and providing an electrode roughness to the top electrode (7.11; 13.11) by roughening the top electrode (7.11; 13.11) on at least one of an inner side facing the electrically active region and an outer side of the top electrode facing away from the electrically active region, wherein the roughening layer (7.9; 13.9) is provided between the light emitting region and the top electrode (7.11; 13.11),
A motor pump comprising a base body, a pump provided inside the base body, and a motor that drives the pump, wherein the motor includes: - a tubular yoke that has a bottom and an opening on the base body side, - a bearing that is fitted to an inside of a bearing hole of the base body, - a rotation shaft that is pivotally supported by the bearing, - a rotor and a commutator that are mounted on the rotation shaft, - a brush that supplies electricity to the commutator, and - a brush holder that holds the brush, the brush holder is fitted to an inside of the yoke, the brush holder is disposed so as to be spaced from the base body in an axial direction of the rotation shaft, a motor-side seal member is provided between the yoke and the base body, and the base body constitutes a stopper that prevents the brush holder from being extracted from the yoke, characterized in that the bearing is also disposed so as to be spaced from the base body in an axial direction of the rotation shaft, and the brush holder is integrally fixed to an outer peripheral surface of the bearing by insert molding. - a tubular yoke that has a bottom and an opening on the base body side, a bottom and an opening on the base body side, - a bearing that is fitted to an inside of a bearing hole of the base body, - a rotation shaft that is pivotally supported by the bearing, - a rotor and a commutator that are mounted on the rotation shaft, - a brush that supplies electricity to the commutator, and - a brush holder that holds the brush,
Toepiece of a binding for securing a boot to a sliding board, comprising: - a chassis; - two wings (21, 22), each wing pivoting with respect to the chassis about a vertical axis of rotation (Z211, Z221) and supporting a lateral interface surface (216, 226) able to come into contact with a front part of a boot when the toepiece is in a downhill configuration; - a lateral release mechanism comprising: ∘ a connecting element; o a first elastic means of which a first end is connected to the connecting element; ∘ a body against which a second end of the first elastic means presses, the body being mobile with respect to the chassis; - an adjustment mechanism acting on the wings (21, 22) in order to position them alternately in a first configuration for which each lateral interface surface (216, 226) is in contact with the boot or in a second configuration in which each lateral interface surface is distant from the boot, for the one same positioning of the boot with respect to the toepiece; characterized in that each wing (21, 22) comprises an actuating member (214, 224) intended, when the wing is opened, to collaborate with a projection of the connecting element so as to cause the translational movement of the connecting element as the wing pivots in one direction, this translational movement not causing the other wing to rotate. - a chassis; - two wings (21, 22), each wing pivoting with respect to the chassis about a vertical axis of rotation (Z211, Z221) and supporting a lateral interface surface (216, 226) able to come into contact with a front part of a boot when the toepiece is in a downhill configuration; - a lateral release mechanism comprising: ∘ a connecting element; o a first elastic means of which a first end is connected to the connecting element; ∘ a body against which a second end of the first elastic means presses, the body being mobile with respect to the chassis; ∘ a connecting element; o a first elastic means of which a first end is connected to the connecting element; ∘ a body against which a second end of the first elastic means presses, the body being mobile with respect to the chassis; - an adjustment mechanism acting on the wings (21, 22) in order to position them alternately in a first configuration for which each lateral interface surface (216, 226) is in contact with the boot or in a second configuration in which each lateral interface surface is distant from the boot, for the one same positioning of the boot with respect to the toepiece;
A method for continuously monitoring pressure ulcer risk for a patient positioned on a support surface, the support surface having an associated pressure sensing device for sensing instantaneous pressure at the support surface, the method comprising: acquiring pressure data from the pressure sensing device to generate a two-dimensional instantaneous pressure map indicative of instantaneous pressure at locations of the support surface; acquiring a body position model using the two-dimensional IP map, said body position model including body parts that are respectively mapped to locations on a pressure ulcer risk map; determining an accumulated risk in association with each body part; displaying the pressure ulcer risk map in accordance with the accumulated risk; comparing a current body position model to a previous body position model to detect whether there has been a position change of the patient on the support surface, wherein: a) if there is no position change detected, then determining that old tissue remains located at an old position; b) if a new position change is detected, then determining that new tissue is located at a new position; c) if a translation of position is detected, then determining that old tissue is located at a new position; and d) if a micro-reposition is detected, then determining that new tissue is located at an old position. acquiring pressure data from the pressure sensing device to generate a two-dimensional instantaneous pressure map indicative of instantaneous pressure at locations of the support surface; acquiring a body position model using the two-dimensional IP map, said body position model including body parts that are respectively mapped to locations on a pressure ulcer risk map; determining an accumulated risk in association with each body part; displaying the pressure ulcer risk map in accordance with the accumulated risk; comparing a current body position model to a previous body position model to detect whether there has been a position change of the patient on the support surface, wherein: a) if there is no position change detected, then determining that old tissue remains located at an old position; b) if a new position change is detected, then determining that new tissue is located at a new position; c) if a translation of position is detected, then determining that old tissue is located at a new position; and d) if a micro-reposition is detected, then determining that new tissue is located at an old position. a) if there is no position change detected, then determining that old tissue remains located at an old position; b) if a new position change is detected, then determining that new tissue is located at a new position; c) if a translation of position is detected, then determining that old tissue is located at a new position; and d) if a micro-reposition is detected, then determining that new tissue is located at an old position.
A braille display comprising an outer wall comprising an outer surface, an inner surface and a plurality of holes extending between the outer surface and the inner surface and which are arranged in a at least substantially regular pattern relative to each other wherein the braille display is further provided with braille cells (16-i) wherein each braille cell comprises at least one tactile member which is movable between a first outer position and second outer position and activations means for moving the at least one tactile member between the first and second outer position wherein the at least one tactile member comprises a free top and wherein each braille cell (16-i) is located near the inner surface of the braille display wherein each tactile member extends through one of the holes from the inner surface in a direction of the outer surface, at least if the tactile member is in the second position and wherein a position of the free top of the tactile member relative to the outer surface when the tactile member is in its first position differs from the position of the free top of the tactical member relative to the outer surface when the tactile member is in its second position, characterized in that each braille cell (16-i) of a group of the braille cells is attached to the outer wall by means of a connection (32, 34, 44, 46) which acts on the one hand on the braille cell (16-i) and on the other hand on the outer wall at a location adjacent to the braille cell.
A packaged semiconductor device comprising: a die attached to a die flag of a lead frame, wherein the die includes a first minor side, a second minor side, a third minor side, and a fourth minor side, wherein the first and second minor side are opposite each other and the third and fourth minor side are opposite each other; an outer-most lead (24, 124) of the lead frame extending outwardly from a first minor side of the die and closest to the third minor side, wherein the outer-most lead (24, 124) includes a thinned region (32, 132) located between the die and a full thickness portion of the outer-most lead (24, 124); an electrical connection between the die and the outer-most lead; and an encapsulant (38, 138) surrounding the die, the electrical connection, and surrounding at least a portion of an outer edge (30, 130) of the thinned region (32, 132) of the outer-most lead (24, 124) such that the full thickness portion of the outer-most lead (24, 124) extends beyond the encapsulant (38, 138); characterized in that an interface between the thinned region (32,132) and the full thickness portion of the outer-most lead (24,124) is located within a dam bar region (16, 20, 116) of the outer-most lead (24, 124). a die attached to a die flag of a lead frame, wherein the die includes a first minor side, a second minor side, a third minor side, and a fourth minor side, wherein the first and second minor side are opposite each other and the third and fourth minor side are opposite each other; an outer-most lead (24, 124) of the lead frame extending outwardly from a first minor side of the die and closest to the third minor side, wherein the outer-most lead (24, 124) includes a thinned region (32, 132) located between the die and a full thickness portion of the outer-most lead (24, 124); an electrical connection between the die and the outer-most lead; and an encapsulant (38, 138) surrounding the die, the electrical connection, and surrounding at least a portion of an outer edge (30, 130) of the thinned region (32, 132) of the outer-most lead (24, 124) such that the full thickness portion of the outer-most lead (24, 124) extends beyond the encapsulant (38, 138); characterized in that an interface between the thinned region (32,132) and the full thickness portion of the outer-most lead (24,124) is located within a dam bar region (16, 20, 116) of the outer-most lead (24, 124).
A seal member for a rotary regenerative scrubber comprising: a hub; a rim circumferentially surrounding the hub; and a plurality of spokes extending from the hub to the rim, wherein the hub, rim, and spokes define an axially facing seal face configured to form a sealing engagement with an opposed seal surface of a rotary regenerative scrubber, and a mounting face axially opposed to the seal face configured for mounting to a rotor assembly of a rotary regenerative scrubber, characterized in that the seal face includes a labyrinth seal defined therein. a hub; a rim circumferentially surrounding the hub; and a plurality of spokes extending from the hub to the rim, wherein the hub, rim, and spokes define an axially facing seal face configured to form a sealing engagement with an opposed seal surface of a rotary regenerative scrubber, and a mounting face axially opposed to the seal face configured for mounting to a rotor assembly of a rotary regenerative scrubber, characterized in that the seal face includes a labyrinth seal defined therein.
A peripheral unit (10, 50, 101) comprising: one or more end device components that physically actuate a building environment; a wireless transceiver for wirelessly receiving programs that define commands for operation of the end devices and transmitting data; a local memory for storing the programs; and a processor configured to provide an embedded interpreter to process the programs to command the end device components; characterized in that: the embedded interpreter comprises a cluster library to define functional and application specific domains, commands, clusters, and attributes; a scripting engine to locally run programs; an input/output manager to manage the programs received by the peripheral device and output commands to the end devices; and a communication stack to define a computer networking protocol for the peripheral device; and these components of the embedded interpreter being local to the peripheral unit and reside thereon such that the peripheral unit is programmable with a stand-alone application that can be used to operate and command the peripheral unit to command the one or more end device components to actuate the building environment in the event of network failure. one or more end device components that physically actuate a building environment; a wireless transceiver for wirelessly receiving programs that define commands for operation of the end devices and transmitting data; a local memory for storing the programs; and a processor configured to provide an embedded interpreter to process the programs to command the end device components; characterized in that: the embedded interpreter comprises a cluster library to define functional and application specific domains, commands, clusters, and attributes; a scripting engine to locally run programs; an input/output manager to manage the programs received by the peripheral device and output commands to the end devices; and a communication stack to define a computer networking protocol for the peripheral device; and these components of the embedded interpreter being local to the peripheral unit and reside thereon such that the peripheral unit is programmable with a stand-alone application that can be used to operate and command the peripheral unit to command the one or more end device components to actuate the building environment in the event of network failure. the embedded interpreter comprises a cluster library to define functional and application specific domains, commands, clusters, and attributes; a scripting engine to locally run programs; an input/output manager to manage the programs received by the peripheral device and output commands to the end devices; and a communication stack to define a computer networking protocol for the peripheral device; and these components of the embedded interpreter being local to the peripheral unit and reside thereon such that the peripheral unit is programmable with a stand-alone application that can be used to operate and command the peripheral unit to command the one or more end device components to actuate the building environment in the event of network failure.
Connection housing having a connection housing rear wall and at least one free space and having at least one connection device for conductors, which comprises at least one or multiple individual conductor connections (2, 3, 4), for which purpose each individual conductor connection (2, 3, 4) comprises in each case a metal contact element, a spring support made of a non-conductive material, particularly plastic, and a clamping spring, wherein the clamping spring is formed in a V-shaped manner and comprises a support limb and a clamping limb arranged at an acute angle of 10°<α<90° to the support limb, wherein the support limb and the clamping limb are connected to each other via a spring back, wherein the connection housing also comprises a conductor insertion opening and an opening for a pusher or screwdriver for opening a clamping point between the clamping limb and a contact limb, characterized in that the contact element has an L-shape with a base limb and the contact limb, and in that the spring support is inserted into the free space in such a way that a base wall of the spring support lies spaced apart parallel to the rear wall of the connection housing, wherein the base wall forms a conductor guide for a conductor to be inserted and wherein the base wall closes off the housing completely or partially from the outside in the region of the free space.
A method of producing a decellularized composite tissue bioscaffold, said method comprising subjecting a composite tissue, that interfaces a soft tissue and a hard tissue and comprises hard tissue plus soft tissue, to treatments using detergents, chemical oxidation and ultrasonic energy for removing cells and cellular debris; and obtaining a decellularized composite tissue bioscaffold suitable to be grafted into a mammal for musculoskeletal tissue interface reconstruction, wherein at least 90% of cells are removed from said interface tissue, wherein methods for treatment of the human or animal body by surgery or therapy are excluded.