Abstract: An optoelectronic chip includes a semiconductor layer sequence including at least one n-doped semiconductor layer, at least one p-doped semiconductor layer, an active layer arranged between the at least one n-doped semiconductor layer and the at least one p-doped semiconductor layer, wherein the p-doped semiconductor layer is electrically contacted by a p-connection contact, the n-doped semiconductor layer is electrically contacted by an n-connection contact, the semiconductor chip has at least two trenches, the p-connection contact is located within the first trench and the n-connection contact is located within the second trench, below the p-connection contact and within the first trench a first dielectric mirror element is arranged, which is electrically insulated, and below the n-connection contact and within the second trench and between the n-connection contact and the n-doped semiconductor layer, a second dielectric mirror element is arranged at least in regions, the second dielectric mirror element be

Abstract: A radiation-emitting semiconductor chip includes a semiconductor body having an active region that generates radiation; a first contact layer having a first contact surface and a first contact web structure connected to the first contact surface; a second contact layer having a second contact surface and a second contact web structure connected to the second contact surface, wherein the first contact web structure and the second contact web structure overlap in places in plan view of the semiconductor chip; a current distribution layer through which the first semiconductor layer electrically conductively connects to the first contact layer; and an insulation layer containing a dielectric material, wherein the insulation layer is arranged between the first semiconductor layer and the current distribution layer and has a plurality of openings into which the current distribution layer extends, and a diameter of the openings is 1 ?m to 20 ?m.

Abstract: A method for producing an optoelectronic semiconductor chip is specified, wherein a method step A) involves providing a semiconductor layer stack comprising a semiconductor layer of a first type, a semiconductor layer of a second type and an active layer arranged between the semiconductor layer of the first type and the semiconductor layer of the second type. Furthermore, the method comprises in a method step B) forming a mesa structure in the semiconductor layer of the first type, the semiconductor layer of the second type and the active layer. The method furthermore comprises in a method step C) applying a passivation layer to the mesa structure by means of vapour deposition or sputtering.

Abstract: A radiation-emitting semiconductor chip includes a substrate; an epitaxial semiconductor layer sequence having an active zone that generates electromagnetic radiation of a first wave-length range, wherein the substrate is transparent to electromagnetic radiation of the active zone; and an optically active layer arranged on a side surface of the substrate and on a rear main surface of the semiconductor chip, which lies opposite to a radiation exit surface of the semiconductor chip.

Abstract: An optoelectronic chip includes a semiconductor layer sequence including at least one n-doped semiconductor layer, at least one p-doped semiconductor layer, an active layer arranged between the at least one n-doped semiconductor layer and the at least one p-doped semiconductor layer, wherein the p-doped semiconductor layer is electrically contacted by a p-connection contact, the n-doped semiconductor layer is electrically contacted by an n-connection contact, the semiconductor chip has at least two trenches, the p-connection contact is located within the first trench and the n-connection contact is located within the second trench, below the p-connection contact and within the first trench a first dielectric mirror element is arranged, which is electrically insulated, and below the n-connection contact and within the second trench and between the n-connection contact and the n-doped semiconductor layer, a second dielectric mirror element is arranged at least in regions, the second dielectric mirror element be

Abstract: The invention relates, inter alia, to a method for producing a plurality of semiconductor chips, the method comprising the following steps: providing a substrate (1); applying a semiconductor layer sequence (2) to the substrate (1); generating a plurality of recesses (6) in the semiconductor layer sequence (2) on the side of the semiconductor layer sequence (2) that is facing away from the substrate (1); detaching the substrate (1) from the semiconductor layer sequence (2); thinning the semiconductor layer sequence (2) on the side that was facing the substrate (1) prior to detaching the substrate (1).

Abstract: An optoelectronic semiconductor chip is disclosed. In an embodiment the chip includes at least one n-doped semiconductor layer, at least one p-doped semiconductor layer and an active layer arranged between the at least one n-doped semiconductor layer and the at least one p-doped semiconductor layer, wherein the p-doped semiconductor layer is electrically contacted by a p-type connection contact, wherein a first trench extending at least partially into the p-doped semiconductor layer is arranged below the p-type connection contact, wherein an electrically insulating first blocking element arranged at least partially below the p-type connection contact and at least partially within the trench is arranged at least between the n-doped semiconductor layer and the p-type connection contact, and wherein the electrically insulating first blocking element is configured to prevent a direct current flow between the p-type connection contact and the p-doped and n-doped semiconductor layers and the active layer.

Abstract: There are provided measures for enabling/realizing service continuity in a centralized service network system. Such measures exemplarily comprise detecting a deregistration request for deregistering a terminal with respect to a first switching entity from a registration in which the first switching entity is registered for the terminal as a contact point for centralized services, starting a waiting timer for waiting for a registration request for registering the terminal with respect to a second switching entity upon detection of said deregistration request, and re-registering the terminal in the registration such that the second switching entity is registered for the terminal as a contact point for centralized services upon detection of the registration request for registering the terminal with respect to the second switching entity before expiry of the waiting timer.

Abstract: There are provided measures for enabling/realizing service continuity in a centralized service network system. Such measures exemplarily comprise detecting a deregistration request for deregistering a terminal with respect to a first switching entity from a registration in which the first switching entity is registered for the terminal as a contact point for centralized services, starting a waiting timer for waiting for a registration request for registering the terminal with respect to a second switching entity upon detection of said deregistration request, and re-registering the terminal in the registration such that the second switching entity is registered for the terminal as a contact point for centralized services upon detection of the registration request for registering the terminal with respect to the second switching entity before expiry of the waiting timer.

Abstract: A method of allocating a routing identifier to a subscription (FIG. 2) in order for an application server (218) to be able to send a message to or call a mobile terminal (108) comprising the steps of sending a request for the routing identifier from the application server to a subscription database (step 1); selecting a routing identifier (steps 2 and 3); using the request to create an association between the routing identifier and a subscription identifier in the subscription database (steps 2 and 3); and de-allocating the routing identifier once message sending or calling is complete (step 7).

Abstract: A concentrating solar mirror panel assembly having a reflective sheet with a reflective major surface and an opposing major surface and a corrugated stiffener having ridges and troughs each having an outer surface with land areas, wherein the land areas of at least a portion of the ridges are joined to at least a portion of the opposing major surface of the reflective sheet. The concentrating solar mirror panel assembly is non-planar and substantially rigid. The concentrating solar mirror panel assembly is assembled such that a desired non-planar shape is maintained: either using a locking sheet or having the corrugated stiffener attached so that its principal axes of corrugation are substantially perpendicular to the axis of curvature of the assembly. Methods of making the concentrating solar mirror panel assembly are also disclosed. Concentrated solar power systems and solar collection devices are also disclosed.

Abstract: The present disclosure generally relates to durable solar mirror films, methods of making durable solar mirror films, and constructions including durable solar mirror films. Some embodiments of the present disclosure relate to methods of making solar mirror films that do not include a reflective layer material across the entire weatherable layer. Some embodiments relate to a method of making a solar mirror film involving providing a weatherable layer having a first major surface and a second major surface; depositing a reflective material on the first major surface of the weatherable layer; and removing a portion of the reflective material (e.g., ultrasonically, mechanically, or thermally).

Abstract: The present disclosure generally relates to durable solar mirror films, methods of making durable solar mirror films, and constructions including durable solar mirror films. In some embodiments, the present disclosure relates to a solar mirror film comprising: a weatherable layer having a first major surface and a second major surface; regions of reflective material adjacent to the first major surface of the weatherable layer; and regions of the first major surface of the weatherable layer substantially lacking reflective material. In some embodiments, the present disclosure relates to a weatherable layer having a first major surface and a second major surface; wherein the first major surface includes a bulk region and an edge region; and a reflective material adjacent to the bulk region of the first major surface of the weatherable layer and substantially absent from the edge region.

Abstract: The present invention refers to a method, an apparatus and a computer program product for relaying CAMEL related messages in a telecommunication network, wherein received CAMEL related messages and corresponding subscriber data are analyzed (S3), the received CAMEL related messages are translated (S5) in non-Camel messages, the non-Camel messages are relayed (S6) to a service delivery framework on the basis of the ana-lyzing result and non-CAMEL responses are received (S8) from the service delivery framework. The non-CAMEL responses are re-translated into standard CAMEL operation responses (S9), which are sent to initiator of the received CAMEL related message (S11).

Abstract: The application relates to Short Message Service SMS in IMS. The relevant standard is 3GPP TR 23.863. According to current standardised procedures, a UE in an originating network can submit an encapsulated SMS to an S-CSCF which forwards it to an IP-SM-GW in the originating network. The IP-SM-GW can extract the SMS and forward it to an SMS-SC. The SMS-SC can forward the SMS to an SMS-GMSC in the terminating network which delivers it to an IP-SM-GW in the terminating network. The can use the telephone uniform resource identifier associated with the IMSI of the message received for the target UE to send the short message encapsulated in the appropriate SIP method towards an S-CSCF which forwards it to the target UE. If the target UE is available via IMS forwarding via the SMS-SC is unnecessary.

Abstract: The present invention relates to the field of treatment and prevention of conditions related to oxidative stress and hormone resistance. Preferably, insulin resistance, erythropoietin resistance and acetyl-choline resistance are in the focus. The invention also relates to the field of use of amino acids, in particular p-L-Tyrosine and a precursor thereof as a medicament or composition or formulation in the prevention or treatment of said conditions.

Abstract: A method of allocating a routing identifier to a subscription (FIG. 2) in order for an application server (218) to be able to send a message to or call a mobile terminal (108) comprising the steps of sending a request for the routing identifier from the application server to a subscription database (step 1); selecting a routing identifier (steps 2 and 3); using the request to create an association between the routing identifier and a subscription identifier in the subscription database (steps 2 and 3); and de-allocating the routing identifier once message sending or calling is complete (step 7).

Abstract: A concentrating solar mirror panel assembly having a reflective sheet with a reflective major surface and an opposing major surface and a corrugated stiffener having ridges and troughs each having an outer surface with land areas, wherein the land areas of at least a portion of the ridges are joined to at least a portion of the opposing major surface of the reflective sheet. The concentrating solar mirror panel assembly is non-planar and substantially rigid. The concentrating solar mirror panel assembly is assembled such that a desired non-planar shape is maintained: either using a locking sheet or having the corrugated stiffener attached so that its principal axes of corrugation are substantially perpendicular to the axis of curvature of the assembly. Methods of making the concentrating solar mirror panel assembly are also disclosed. Concentrated solar power systems and solar collection devices are also disclosed.

Abstract: The present invention refers to a method, an apparatus and a computer program product for relaying CAMEL related messages in a telecommunication network, wherein received CAMEL related messages and corresponding subscriber data are analyzed (S3), the received CAMEL related messages are translated (S5) in non-Camel messages, the non-Camel messages are relayed (S6) to a service delivery framework on the basis of the ana-lyzing result and non-CAMEL responses are received (S8) from the service delivery framework. The non-CAMEL responses are re-translated into standard CAMEL operation responses (S9), which are sent to initiator of the received CAMEL related message (S11).

Abstract: A binder or sizing composition that is provided that demonstrates improved hydrolytic stability of the bond between a SiO containing substrate, such as glass, and a matrix polymer, such as polypropylene, which is especially useful in reinforced plastics. A water-based composition is provided that contains at least one amino-functional coupling agent, and acid or anhydride modified polyolefin, and an epoxy functional compound. This composition is useful as a glass binder or sizing to provide a strong bond between glass and a polymer.