mhurhangee/patent-ind-claim-en huggingface dataset:
System for treatment of structure pollutants (BSS), comprising an evaluation unit (AE), which is implemented on a computer (R), in particular on a server, a central database (DB), to which the evaluation unit (AE) has access, and a mobile, portable field device (FG), which has a data interface (DSS) to the evaluation unit (AE) and to the database (DB), wherein the system is configured to detect location-based pollutant data (SSD) of structure pollutants (BSS) locally at pollutant locations (SSFO) of at least one affected structure (B), in particular a building, and the evaluation unit (AE) is configured to evaluate the detected location-based pollutant data (SSD), on the basis of a structure plan (BPL) of the affected structure (B) stored in the central database (DB), and to generate instructions and/or control signals for treatment of structure pollutants (BSS) and/or for management of pollutant data (SSD), wherein the field device (FG) is configured to detect the location-based pollutant data (SSD) of structure pollutants (BSS) at pollutant locations (SSFO) on site and to transmit the location-based pollutant data (SSD) to the evaluation unit (AE) and/or to the central database (DB) via the data interface (DSS), wherein the portable field device (FG) includes a data processing unit (DVE) configured for on-site measurement and/or on-site analysis of biological, chemical and/or physical properties of a structure pollutant (BSS) present in or on the structure (B), which properties can be transmitted as material property data, via the data interface (DSS) of the field device (FG), to the evaluation unit (AE), implemented on the computer (R), of the system and/or to the central database (DB) of the system. wherein the system is configured to detect location-based pollutant data (SSD) of structure pollutants (BSS) locally at pollutant locations (SSFO) of at least one affected structure (B), in particular a building, and the evaluation unit (AE) is configured to evaluate the detected location-based pollutant data (SSD), on the basis of a structure plan (BPL) of the affected structure (B) stored in the central database (DB), and to generate instructions and/or control signals for treatment of structure pollutants (BSS) and/or for management of pollutant data (SSD), wherein the field device (FG) is configured to detect the location-based pollutant data (SSD) of structure pollutants (BSS) at pollutant locations (SSFO) on site and to transmit the location-based pollutant data (SSD) to the evaluation unit (AE) and/or to the central database (DB) via the data interface (DSS), wherein the portable field device (FG) includes a data processing unit (DVE) configured for on-site measurement and/or on-site analysis of biological, chemical and/or physical properties of a structure pollutant (BSS) present in or on the structure (B), which properties can be transmitted as material property data, via the data interface (DSS) of the field device (FG), to the evaluation unit (AE), implemented on the computer (R), of the system and/or to the central database (DB) of the system.
An apparatus, comprising: a flexible probe having a proximal portion and a distal end, the probe adapted for insertion into a body cavity of a living subject, the probe having a distal tip at the distal end of the probe; and an assembly in the distal end of the probe, comprising: a transmitter ; and a receiver receiving signals from the transmitter for sensing a position of the receiver relative to the transmitter; characterized by first and second flat spring coils disposed between the transmitter and the receiver, a transmitter retainer , a receiver retainer and a spacer , wherein the transmitter retainer and the receiver retainer respectively mate with external edges of the first flat spring coil and the second flat spring coil, wherein the first and second flat spring coils are held apart by the spacer which mates with internal edges of the first and second flat spring coils, wherein the first and second flat spring coils are configured to deform in response to pressure exerted on the distal tip when the distal tip engages a wall of the body cavity. a flexible probe having a proximal portion and a distal end, the probe adapted for insertion into a body cavity of a living subject, the probe having a distal tip at the distal end of the probe; and an assembly in the distal end of the probe, comprising: a transmitter ; and a receiver receiving signals from the transmitter for sensing a position of the receiver relative to the transmitter; a transmitter ; and a receiver receiving signals from the transmitter for sensing a position of the receiver relative to the transmitter; characterized by first and second flat spring coils disposed between the transmitter and the receiver, a transmitter retainer , a receiver retainer and a spacer , wherein the transmitter retainer and the receiver retainer respectively mate with external edges of the first flat spring coil and the second flat spring coil, wherein the first and second flat spring coils are held apart by the spacer which mates with internal edges of the first and second flat spring coils, wherein the first and second flat spring coils are configured to deform in response to pressure exerted on the distal tip when the distal tip engages a wall of the body cavity.
A joint retaining a first member (28;202;300) to a second member (32;212;340) to resist separation in a first direction, the joint comprising: a first recess in the first member (28;202;300), the first member (28;202;300) comprising at least a ceramic matrix composite (CMC) substrate; and at least one key partially accommodated in the first recess and engaging the second member (32;212;340), the second member (32;212;340) comprising at least a metallic substrate; the first member (28;202;300) and the second member (32;212;340) encircle an axis; there are a circumferential array of said first recesses ; there are a circumferential array of said keys , each partially accommodated in a respective associated said first recess ; there are a circumferential array of second recesses in the second member , wherein each of said keys is partially accommodated in a respective associated said second recess ; and the joint further comprises a spring in each of said second recesses biasing the key into the first recess ; characterised in that the keys are spheres of a monolithic ceramic. a first recess in the first member (28;202;300), the first member (28;202;300) comprising at least a ceramic matrix composite (CMC) substrate; and at least one key partially accommodated in the first recess and engaging the second member (32;212;340), the second member (32;212;340) comprising at least a metallic substrate; the first member (28;202;300) and the second member (32;212;340) encircle an axis; there are a circumferential array of said first recesses ; there are a circumferential array of said keys , each partially accommodated in a respective associated said first recess ; there are a circumferential array of second recesses in the second member , wherein each of said keys is partially accommodated in a respective associated said second recess ; and the joint further comprises a spring in each of said second recesses biasing the key into the first recess ; characterised in that the keys are spheres of a monolithic ceramic.
A method for selective laser-induced etching of a microhole into a workpiece , the method characterized by the steps of: creating (step 71) a modification in the workpiece that extends from an entrance side to an exit side of the workpiece, the modification being created by a laser pulse that has an annular transverse intensity distribution extending in a propagation direction (Z) of the laser beam at least over a length (L) which results in the modification being formed from the entrance side to the exit side of the workpiece, the modification delimiting, by a remaining material surrounding the modification , a cylindrical body , and introducing (step 73) the workpiece with the modification into a wet-chemical etching bath for structurally separating the cylindrical body from the remaining material . creating (step 71) a modification in the workpiece that extends from an entrance side to an exit side of the workpiece, the modification being created by a laser pulse that has an annular transverse intensity distribution extending in a propagation direction (Z) of the laser beam at least over a length (L) which results in the modification being formed from the entrance side to the exit side of the workpiece, the modification delimiting, by a remaining material surrounding the modification , a cylindrical body , and introducing (step 73) the workpiece with the modification into a wet-chemical etching bath for structurally separating the cylindrical body from the remaining material .
A method executed by a Long Term Evolution, LTE, enhanced node B, eNB, , the eNB being in communication with a user equipment, UE, , the UE operating in a discontinuous reception, DRX, operation mode, the DRX operation mode including on durations during which data can be received by the UE , the UE transmitting a rank indicator, RI, control signal to the eNB , and the RI control signal being transmitted using periodic RI reporting resources , wherein the RI control signal comprises a signal that is configured to provide Channel State Indication, CSI, feedback, the method comprising: transmitting data to the UE; and receiving from the UE the RI control signal using a periodic RI reporting resource during but not after a retransmission window for one or more potential retransmissions of data that the UE was not able to receive properly in an on duration of the DRX operation mode. transmitting data to the UE; and receiving from the UE the RI control signal using a periodic RI reporting resource during but not after a retransmission window for one or more potential retransmissions of data that the UE was not able to receive properly in an on duration of the DRX operation mode.
A composite structure for heat dissipation or light absorption, comprising: a first metal layer ; a carbon nano-coating applied on a surface of the first metal layer ; a black coating applied on a surface of the carbon nano-coating opposite to the first metal layer ; and a second metal layer , wherein the first metal layer is attached to a surface of the second metal layer via an adhesive layer , wherein the adhesive layer is affixed to the first metal layer . a first metal layer ; a carbon nano-coating applied on a surface of the first metal layer ; a black coating applied on a surface of the carbon nano-coating opposite to the first metal layer ; and a second metal layer , wherein the first metal layer is attached to a surface of the second metal layer via an adhesive layer , wherein the adhesive layer is affixed to the first metal layer .
Rotor blade for a wind turbine , with a trailing edge comprising a trailing edge core having several core elements arranged side by side, seen from root to tip, and with an inner and an outer laminate , whereby one core element is split into two element parts separated by a slit , whereby, seen in the direction from a blade root to a blade tip , the inner laminate runs into and through the slit and becomes the outer laminate .
Holding device for a shelf base on a shelf wall , having a first connecting element to be arranged on the shelf wall , wherein the holding device comprises a second connecting element to be arranged in the shelf base , and at least one of the connecting elements (4; 5) has a magnet acting in attracting manner on the respective other connecting element (5; 4) in order to move a holding element of the first connecting element magnetically from a moved-in return position to a moved-out holding position for mounting of the shelf base on the shelf wall , wherein the holding element has at a front end, a blocking element in which the cross-section is greatest in the region of its free end in order to secure the first connecting element in the withdrawn holding position in this position by engaging behind a corresponding undercut on the shelf base , characterised in that a region of smaller cross-section follows the region at the free end of the blocking element , at which the cross-section is greatest, seen in the movement direction between moved-out holding position and moved-in return position of the holding element .
An antibody or antibody fragment comprising (a) a CDR-H1 comprising the amino acid sequence of SEQ ID NO: 17; (b) a CDR-H2 comprising the amino acid sequence of SEQ ID NO: 18; (c) a CDR-H3 comprising the amino acid sequence of SEQ ID NO: 19; (d) a CDR-L1 comprising the amino acid sequence of SEQ ID NO: 20; (e) a CDR-L2 comprising the amino acid sequence of SEQ ID NO: 21; and (f) a CDR-L3 comprising the amino acid sequence of SEQ ID NO: 22. (a) a CDR-H1 comprising the amino acid sequence of SEQ ID NO: 17; (b) a CDR-H2 comprising the amino acid sequence of SEQ ID NO: 18; (c) a CDR-H3 comprising the amino acid sequence of SEQ ID NO: 19; (d) a CDR-L1 comprising the amino acid sequence of SEQ ID NO: 20; (e) a CDR-L2 comprising the amino acid sequence of SEQ ID NO: 21; and (f) a CDR-L3 comprising the amino acid sequence of SEQ ID NO: 22.
A method of controlling an air conditioning system for a vehicle, - in which at least one mixed air flow (M) flows into at least one air-conditioning unit , the mixed air flow (M) being located in a mixed air duct , and - at least one supply air flow (Z) flows out of the air conditioning unit , - wherein at least one actual flow value is determined in at least one fresh air duct , and - at least one control unit continuously adjusts at least one first level of opening for at least one external air shutter unit depending on the actual flow value, - wherein the quantity of the fresh air flow (A) flowing into the mixed air duct is adjusted by changing the first opening level of the fresh air shutter unit , characterised in that - the control unit sets at least a second level of opening for at least one recirculation shutter unit independently of the first level of opening, - wherein the quantity of the circulating air flow (U) flowing into the mixed air duct is adjusted by changing the second opening level of the circulating air shutter unit , - the control unit also continuously adjusts the second level of opening for the circulating air shutter unit dependent on the actual flow value and - at least one combination of a first opening level with a second opening level provides an actual flow value in the fresh air duct which corresponds to a predetermined flow setpoint value of the fresh air flow (A). - in which at least one mixed air flow (M) flows into at least one air-conditioning unit , the mixed air flow (M) being located in a mixed air duct , and - at least one supply air flow (Z) flows out of the air conditioning unit , - wherein at least one actual flow value is determined in at least one fresh air duct , and - at least one control unit continuously adjusts at least one first level of opening for at least one external air shutter unit depending on the actual flow value, - wherein the quantity of the fresh air flow (A) flowing into the mixed air duct is adjusted by changing the first opening level of the fresh air shutter unit , characterised in that - the control unit sets at least a second level of opening for at least one recirculation shutter unit independently of the first level of opening, - wherein the quantity of the circulating air flow (U) flowing into the mixed air duct is adjusted by changing the second opening level of the circulating air shutter unit , - the control unit also continuously adjusts the second level of opening for the circulating air shutter unit dependent on the actual flow value and - at least one combination of a first opening level with a second opening level provides an actual flow value in the fresh air duct which corresponds to a predetermined flow setpoint value of the fresh air flow (A).
Compounds, characterised in that they conform to one of the formulae (Ib), (Id), (Ie), (Ig) or (Ih) where the group Rf is selected from the groups CF 3 -(CF 2 ) 1-2 -, CF 3 -(CF 2 ) 1-2 -O-, CF 3 -O-(CF 2 ) 1-3 -, CF 3 -O-(CF 2 ) 1-2 -O-, CF 3 -(CF 2 ) 1-2 -O-CF 2 -, CF 3 -O-(CF 2 ) 1-2 -O-CF 2 -, CF 3 -O-(CF 2 -O) 1-8 - and CF 3 -O-(CF 2 -O) 1-8 -CF 2 -, R"= C1-C4-alkyl and R'" = H or an alkyl group.
A coated conductor comprising: a conductor ; and a coating on the conductor , the coating comprising (i) an annular wall composed of a polymeric material that includes an ethylene-based polymer, the annular wall surrounding at least a portion of the conductor ; (ii) a plurality of channels extending along a length of an outer surface of the annular wall ; and (iii) a slip material comprising a silicone, the slip material located in the channels and forming a capillary structure in the channels , and the capillary structures protruding radially outward from the annular wall , where a portion of the capillary structure extends outward beyond the outermost surface of the annular wall ; and wherein the capillary structure is a three dimensional structure having a height, width, and depth and composed of the slip material. a conductor ; and a coating on the conductor , the coating comprising (i) an annular wall composed of a polymeric material that includes an ethylene-based polymer, the annular wall surrounding at least a portion of the conductor ; (ii) a plurality of channels extending along a length of an outer surface of the annular wall ; and (iii) a slip material comprising a silicone, the slip material located in the channels and forming a capillary structure in the channels , and the capillary structures protruding radially outward from the annular wall , where a portion of the capillary structure extends outward beyond the outermost surface of the annular wall ; and wherein the capillary structure is a three dimensional structure having a height, width, and depth and composed of the slip material. (i) an annular wall composed of a polymeric material that includes an ethylene-based polymer, the annular wall surrounding at least a portion of the conductor ; (ii) a plurality of channels extending along a length of an outer surface of the annular wall ; and (iii) a slip material comprising a silicone, the slip material located in the channels and forming a capillary structure in the channels , and the capillary structures protruding radially outward from the annular wall , where a portion of the capillary structure extends outward beyond the outermost surface of the annular wall ; and wherein the capillary structure is a three dimensional structure having a height, width, and depth and composed of the slip material.
A method for processing data in a wireless communication network, comprising: receiving, by a terminal device, from a network device a slot format indicator, SFI, the SFI being used to indicate a plurality of slot format indices; obtaining, by the terminal device, the plurality of slot format indices according to the SFI; determining, by the terminal device, a slot format of each slot in a transmission period according to the plurality of slot format indices and a third correspondence relationship, wherein the third correspondence relationship is a relationship between slot format indices and slot formats, and the slot format indices correspond to slot formats of slots in the transmission period; and receiving, by the terminal device, a physical downlink control channel, PDCCH, according to the slot formats corresponding to the slot format indices indicated by the SFI; wherein the transmission period is a transmission period used for transmitting downlink control information, DCI, carrying the SFI and the transmission period comprises a plurality of slots, the method further comprises: receiving, by the terminal device, configuration information sent by the network device, wherein the configuration information is used to configure the transmission period of the DCI carrying the SFI. receiving, by a terminal device, from a network device a slot format indicator, SFI, the SFI being used to indicate a plurality of slot format indices; obtaining, by the terminal device, the plurality of slot format indices according to the SFI; determining, by the terminal device, a slot format of each slot in a transmission period according to the plurality of slot format indices and a third correspondence relationship, wherein the third correspondence relationship is a relationship between slot format indices and slot formats, and the slot format indices correspond to slot formats of slots in the transmission period; and receiving, by the terminal device, a physical downlink control channel, PDCCH, according to the slot formats corresponding to the slot format indices indicated by the SFI; wherein the transmission period is a transmission period used for transmitting downlink control information, DCI, carrying the SFI and the transmission period comprises a plurality of slots, the method further comprises: receiving, by the terminal device, configuration information sent by the network device, wherein the configuration information is used to configure the transmission period of the DCI carrying the SFI.
A valve for regulating a fluid, the valve including a valve housing with a central part and with two connection ends , the connection ends extending away from the central part , thus indicating a flow direction for the fluid, wherein internally of the central part there is arranged a valve body including an at least partially spherical surface for contact against a corresponding valve seat , the valve body including at least a shutoff part and a through-flow part, wherein the valve seat is arranged in the valve housing and resiliently bearing against the valve body , the valve seat includes a resilient structural part where the spring action from the resilient structural part acts in a direction which is substantially in parallel with the flow direction of the valve , and where the resilient structural part includes at least one annular flange part adapted for direct or indirect bearing on the valve body , where the resilient valve seat or seats include a fixing member for mechanical fixing of the valve seat in a valve housing by plastic deformation of the valve housing and/or by plastic deformation of the fixing member , and where the valve seat further includes a tubular flange part with internal cross-sectional area, the tubular flange part extending away from the valve body and towards a connection end , where the internal cross-sectional area substantially corresponds to the internal cross-sectional area of a through-going opening in the valve housing , characterised in that , the fixing member is in the form of an annular flange part that is conical in a direction which is substantially in parallel with the flow direction, the annular conical flange part , including an external edge adapted for fixing of the valve seat in the valve housing , the edge constituting a barb for engaging the internal surface of the valve housing as the external diameter of the flange part is greater than the internal diameter of the valve housing at the area in which the valve seat is placed.