mhurhangee/ep-ind-claims huggingface dataset:
A display apparatus comprising: a housing including a top plate having an opening and two opposed side plate units; a display member capable of moving through said opening; a shutter configured to open and close said opening; and a moving mechanism provided on at least one of said two side plate units, said moving mechanism including a first slide member and a second slide member each moving along said at least one side plate unit and a transmission member configured to trasmit an amount of movement of said first slide member to said second slide member while increasing the amount of movement, wherein said shutter is configured to move according to movement of the second slide member as well as back and forth along and under the top plate of the housing characterized in that said shutter is a single plate, and the single plate shutter is configured to fully close the opening. a housing including a top plate having an opening and two opposed side plate units; a display member capable of moving through said opening; a shutter configured to open and close said opening; and a moving mechanism provided on at least one of said two side plate units, said moving mechanism including a first slide member and a second slide member each moving along said at least one side plate unit and a transmission member configured to trasmit an amount of movement of said first slide member to said second slide member while increasing the amount of movement, wherein said shutter is configured to move according to movement of the second slide member as well as back and forth along and under the top plate of the housing characterized in that said shutter is a single plate, and the single plate shutter is configured to fully close the opening.
Electric switch for an electrical installation device, comprising: a functional module with a housing, which is suitable for being fixed in a flush-mounted box, a mounting frame and a switching element mounted in the housing so as to be able to rotate about an axis; an illumination module with a lower shell and an illumination unit comprising at least one light source and a first light guiding element; a cover that can be positioned variably along the axis; an operating element with a second light guiding element; and a holding means, which holds the operating element on the switching element, wherein the mounting frame and the housing surround a receiving space, in which the lower shell is received, wherein the illumination unit can be arranged in different positions (P1, P2) that are offset to one another in a direction running substantially parallel to the axis in relation to the lower shell, and wherein the second light guiding element is in contact with the first light guiding element in the different positions (P1, P2) of the illumination unit. a functional module with a housing, which is suitable for being fixed in a flush-mounted box, a mounting frame and a switching element mounted in the housing so as to be able to rotate about an axis; an illumination module with a lower shell and an illumination unit comprising at least one light source and a first light guiding element; a cover that can be positioned variably along the axis; an operating element with a second light guiding element; and a holding means, which holds the operating element on the switching element, wherein the mounting frame and the housing surround a receiving space, in which the lower shell is received, wherein the illumination unit can be arranged in different positions (P1, P2) that are offset to one another in a direction running substantially parallel to the axis in relation to the lower shell, and wherein the second light guiding element is in contact with the first light guiding element in the different positions (P1, P2) of the illumination unit.
Melamine-formaldehyde foam comprising 0.2 to 8 wt.-% of at least one UV stabilizer, selected from piperidinol derivatives, and 0.01 to 5 wt.-% of at least one hydrophobicization agent.
A method comprising: generating a first trace request at an initiator node configured for segment routing, said first trace request comprising a query for FEC, Forwarding Equivalence Class, information; transmitting said first trace request on a path comprising at least one node wherein FEC information for the node are unknown by the initiator node; receiving a response to said first trace request comprising the FEC information to be used to fill in a target FEC stack; inserting, at the initiator node, the FEC information into a second trace request for use in verifying connectivity; transmitting the second trace request with the FEC information; and receiving a response to said second trace request providing FEC validation. generating a first trace request at an initiator node configured for segment routing, said first trace request comprising a query for FEC, Forwarding Equivalence Class, information; transmitting said first trace request on a path comprising at least one node wherein FEC information for the node are unknown by the initiator node; receiving a response to said first trace request comprising the FEC information to be used to fill in a target FEC stack; inserting, at the initiator node, the FEC information into a second trace request for use in verifying connectivity; transmitting the second trace request with the FEC information; and receiving a response to said second trace request providing FEC validation.
A front end body (F1, F2) for constructing a front end of a motor vehicle, wherein the front end body (F1, F2) has: a first lateral supporting element (1 L) and a second lateral supporting element (1 R) which can be fastened to a reference strut, provided on a base body, to align the front end body (F1, F2) on the base body, characterised in that it further comprises: a transverse strut which connects the first lateral supporting element (1 L) and the second lateral supporting element (1 R) such that formed between the first lateral supporting element (1 L) and the second lateral supporting element (1 R) is a receiving space, which is open in the vertical direction of the front end body (F1, F2), for receiving a unit, especially a radiator unit, and a stability element which is fastened releasably at one end to the transverse strut and which at the other end can be fastened indirectly or directly to the base body. a first lateral supporting element (1 L) and a second lateral supporting element (1 R) which can be fastened to a reference strut, provided on a base body, to align the front end body (F1, F2) on the base body, a transverse strut which connects the first lateral supporting element (1 L) and the second lateral supporting element (1 R) such that formed between the first lateral supporting element (1 L) and the second lateral supporting element (1 R) is a receiving space, which is open in the vertical direction of the front end body (F1, F2), for receiving a unit, especially a radiator unit, and a stability element which is fastened releasably at one end to the transverse strut and which at the other end can be fastened indirectly or directly to the base body.
Assembly, in particular a turbomachine, comprising - a shaft, which extends along an axis, - a shaft seal device for sealing an annular gap between the shaft and a stator in order to seal a process fluid chamber in relation to the environment, - wherein the shaft seal device has a ferrofluid shaft seal, - wherein, at the process fluid chamber, the shaft seal device comprises an additional shaft seal in addition to the ferrofluid shaft seal, - wherein the ferrofluid shaft seal is arranged at the annular gap axially between the first shaft seal and the environment, - wherein a pressure sink is provided at the annular gap axially between the additional shaft seal and the ferrofluid shaft seal, characterized - in that the assembly comprises a ferrofluid storage container, in which ferrofluid is stored, and wherein the ferrofluid storage container is connected to the ferrofluid seal by lines to the supply and/or discharge line of the ferrofluid, wherein the assembly has at least one bearing for supporting the shaft, - wherein the assembly comprises a conditioning system which is designed, by means of supply lines to the ferrofluid seal, to supply the ferrofluid at a first pressure to the ferrofluid seal and to supply the ferrofluid to the bearing as lubricant at a second pressure, which is different from the first pressure. - a shaft, which extends along an axis, - a shaft seal device for sealing an annular gap between the shaft and a stator in order to seal a process fluid chamber in relation to the environment, - wherein the shaft seal device has a ferrofluid shaft seal, - wherein, at the process fluid chamber, the shaft seal device comprises an additional shaft seal in addition to the ferrofluid shaft seal, - wherein the ferrofluid shaft seal is arranged at the annular gap axially between the first shaft seal and the environment, - wherein a pressure sink is provided at the annular gap axially between the additional shaft seal and the ferrofluid shaft seal, - in that the assembly comprises a ferrofluid storage container, in which ferrofluid is stored, and wherein the ferrofluid storage container is connected to the ferrofluid seal by lines to the supply and/or discharge line of the ferrofluid, wherein the assembly has at least one bearing for supporting the shaft, - wherein the assembly comprises a conditioning system which is designed, by means of supply lines to the ferrofluid seal, to supply the ferrofluid at a first pressure to the ferrofluid seal and to supply the ferrofluid to the bearing as lubricant at a second pressure, which is different from the first pressure.
A method for producing an RFID label using a printing method, in which at least a part of an antenna required for the function of an RFID label and of a corresponding oscillating circuit is applied to the printing material using sheet-fed offset printing, wherein a conductive paste or printing ink is used for printing the conductive paths, wherein the conductive printing ink contains metallic particles or carbon black or carbon fibers and wherein a protective varnish or a protective ink is applied after printing the components of the antenna / of the oscillating circuit, wherein the ink application and a protective varnish or a protective ink in a sheet-fed offset press with gripper transport or that at least a part of an antenna required for the function of an RFID label and of a corresponding oscillating circuit is applied directly or indirectly onto a printing material by means of a letter press plate, wherein the letter press plate is clamped onto a plate cylinder of a sheet-fed printing press and the ink transfer onto the printing material takes place indirectly via a blanket cylinder, and that the production of antennas or of parts of the oscillating circuits, respectively, for RFID labels takes place so as to be distributed on a sheet to a plurality of panels and wherein the production in each case takes place within the plurality of panels for packaging or packaging parts so as to be distributed on a sheet.
A combination of a drainage gutter and a cover, wherein the drainage gutter includes two ends (2, 3) to which further drainage gutters are connectable, the drainage gutter comprising: locking means on the cover securing a connection between the cover and the drainage gutter that can be released for lifting off the cover, characterized in that in addition to the locking means, the cover includes clamping means in the area of the ends (11, 12) for securing a friction-type connection between the cover and the drainage gutter, wherein the locking means are attached in the longitudinal direction of the cover between the clamping means. locking means on the cover securing a connection between the cover and the drainage gutter that can be released for lifting off the cover, characterized in that in addition to the locking means, the cover includes clamping means in the area of the ends (11, 12) for securing a friction-type connection between the cover and the drainage gutter, wherein the locking means are attached in the longitudinal direction of the cover between the clamping means.
A sensor comprising: a sensing area confined by a plurality of edges (101,102,103); a plurality of antennas spread across the sensing area and that cross each other to form a grid of junctions, wherein the grid of junctions includes more than H ∗ V junctions and wherein the plurality of antennas includes H+V antennas; wherein H is an integer number and V is an integer number, the sensor being characterised in that the plurality of antennas comprise a first and second portion of antennas, wherein each of a first portion of the plurality of antennas forms a continuous path that extends diagonally from one edge toward a first neighboring edge in the sensing area and then continues to extend away from the first neighboring edge in the sensing area to form a bend in the sensing area; and wherein each of a second portion of the plurality of antennas forms a continuous path that extends diagonally from the one edge toward a second neighboring edge in the sensing area and then continues to extend away from the second neighboring edge in sensing area to form a bend in the sensing area; and wherein antennas from the first portion form junctions with antennas from the second portion and the first portion. a sensing area confined by a plurality of edges (101,102,103); a plurality of antennas spread across the sensing area and that cross each other to form a grid of junctions, wherein the grid of junctions includes more than H ∗ V junctions and wherein the plurality of antennas includes H+V antennas; wherein H is an integer number and V is an integer number, the sensor being characterised in that the plurality of antennas comprise a first and second portion of antennas, wherein each of a first portion of the plurality of antennas forms a continuous path that extends diagonally from one edge toward a first neighboring edge in the sensing area and then continues to extend away from the first neighboring edge in the sensing area to form a bend in the sensing area; and wherein each of a second portion of the plurality of antennas forms a continuous path that extends diagonally from the one edge toward a second neighboring edge in the sensing area and then continues to extend away from the second neighboring edge in sensing area to form a bend in the sensing area; and wherein antennas from the first portion form junctions with antennas from the second portion and the first portion.
Contact-making plug for making contact with a contact carrier, in particular with a printed circuit board, having two clamping claws (2, 3), which can be pivoted relative to one another transversely to a plug-in direction, at least one of said clamping claws being configured as a contact holder (4, 5) carrying at least one resilient contact element, which contact holder is configured to abut the contact carrier with a contact force, wherein the clamping claws (2, 3) each have at least one stop surface (15, 16; 17, 18), which, in the state in which no contact is made by the contact-making plug, bear against one another and thus prevent plastic deformation of the contact element, wherein spring means are provided to generate a clamping force that is independent of the contact force, which spring means are configured so that they are supported exclusively on the contact-making plug and thus spring-load the clamping claws (2, 3) in the direction towards one another, characterized in that the spring means are received in grooves (11, 12) extending transversely to the longitudinal extent of the contact-making plug, which grooves guide the spring means, wherein the spring means are formed by two spring elements (8, 9) configured as wire spring elements, which spring elements in particular are connected to one another in a form-fitting manner and are configured as identical parts.
A method for promoting Major Histocompatability Complex- (MHC-) class I processing of a soluble antigen by human dendritic cells (DCs), wherein said DCs are exposed, in vitro, to a viral antigen, a bacterial antigen, a tissue specific antigen, or antigenic fragments thereof, in the presence of bacillus Calmette Guerin or BCG with lipopolysaccharide as a factor or agent that promotes MHC-class I processing of the antigen.
An epoxy resin curing agent comprising polyamines and a compound of acidic character, characterized in that the curing agent comprises a mixture of a primary aliphatic diamine in the amount of 3 to 7%, a primary aliphatic-aromatic diamine in the amount of 34 to 38% and a compound of acidic character, which comprises at least one hydroxy group attached to at least one aromatic ring, in the amount of 49 to 59%, in combination with an aliphatic polyamine in the amount of 1 to 10% by weight, preferably in the amount of 3 to 10% by weight, more preferably from 3 to 8% by weight.
A method for producing an ellagitannin composition, the method comprising: preparing an aqueous solution containing ellagitannins from pomegranate husks and arils; transferring the ellagitannins from the aqueous solution onto a surface of a polymeric cross-linked styrene-divinyl-benzene adsorptive resin material; eluting the ellagitannins from the resin surface with an eluant which is an alkanol containing 1 to 4 carbon atoms to an eluant ellagitannins solution; and separating the eluant from the eluant ellagitannins solution to produce the ellagitannin composition, wherein the ellagitannin composition comprises punicalagin at a concentration of at least 10% on a weight/weight basis. preparing an aqueous solution containing ellagitannins from pomegranate husks and arils; transferring the ellagitannins from the aqueous solution onto a surface of a polymeric cross-linked styrene-divinyl-benzene adsorptive resin material; eluting the ellagitannins from the resin surface with an eluant which is an alkanol containing 1 to 4 carbon atoms to an eluant ellagitannins solution; and
A wire singulating device comprising: a carrier member having a front edge and an opposite rear edge, the front edge defining an opening to a slot that extends at least partially towards the rear edge, the carrier member configured to move relative to a wire bundle that includes plural wires such that the front edge of the carrier member engages the wire bundle, the slot configured to receive one wire of the wire bundle therein; and characterized by a retention feature coupled to the carrier member and juxtaposed relative to the slot to retain the wire within the slot as the carrier member is moved away from the wire bundle to separate the wire from the wire bundle. a carrier member having a front edge and an opposite rear edge, the front edge defining an opening to a slot that extends at least partially towards the rear edge, the carrier member configured to move relative to a wire bundle that includes plural wires such that the front edge of the carrier member engages the wire bundle, the slot configured to receive one wire of the wire bundle therein; and characterized by a retention feature coupled to the carrier member and juxtaposed relative to the slot to retain the wire within the slot as the carrier member is moved away from the wire bundle to separate the wire from the wire bundle.
A method for scheduling a resource, applied to a terminal device, the method comprising: receiving first configuration information; wherein the first configuration information comprises a resource allocation type corresponding to at least one radio network temporary identifier (RNTI) used for scrambling downlink control information; after receiving the DCI, determining a target RNTI that scrambles the DCI; determining the resource allocation type corresponding to the target RNTI based on the target RNTI and the resource allocation type corresponding to the at least one RNTI used for scrambling the DCI; and scheduling the resource according to the resource allocation type corresponding to the target RNTI; wherein the first configuration information comprises at least first indication information and second indication information; wherein the first indication information indicates a first resource allocation type corresponding to a first RNTI used for scrambling the DCI; and the second indication information indicates a second resource allocation type corresponding to a second RNTI used for scrambling the DCI; wherein before receiving the DCI scrambled by the second RNTI, the method further comprises: receiving second configuration information; wherein the second configuration information is used to indicate whether the second RNTI is available. receiving first configuration information; wherein the first configuration information comprises a resource allocation type corresponding to at least one radio network temporary identifier (RNTI) used for scrambling downlink control information; after receiving the DCI, determining a target RNTI that scrambles the DCI; determining the resource allocation type corresponding to the target RNTI based on the target RNTI and the resource allocation type corresponding to the at least one RNTI used for scrambling the DCI; and scheduling the resource according to the resource allocation type corresponding to the target RNTI; wherein the first configuration information comprises at least first indication information and second indication information; wherein the first indication information indicates a first resource allocation type corresponding to a first RNTI used for scrambling the DCI; and the second indication information indicates a second resource allocation type corresponding to a second RNTI used for scrambling the DCI; wherein before receiving the DCI scrambled by the second RNTI, the method further comprises: receiving second configuration information; wherein the second configuration information is used to indicate whether the second RNTI is available.
Method for producing butter in a churning machine which has at least one inlet into a churning cylinder with a beater, and has a rotatable after-churning drum, a texturizer and an outlet, with the following steps a. supplied cream is converted in the churning cylinder into butter grains and butter milk by means of a beater; b. the butter grain size is checked in an after-churning process in the after-churning drum; c. the butter grain/butter milk mixture is transferred into a texturizer; and d. the butter milk is separated from the butter grains by means of a texturizer and then the butter grains are converted into a butter mass; characterized in that e. the current consumption for operating the after-churning drum is measured in step b., and/or the current consumption for operating the texturizer is measured in step d., and f. the transfer from step b. to step c. is monitored, controlled and regulated depending on the measurement in step e. a. supplied cream is converted in the churning cylinder into butter grains and butter milk by means of a beater; b. the butter grain size is checked in an after-churning process in the after-churning drum; c. the butter grain/butter milk mixture is transferred into a texturizer; and d. the butter milk is separated from the butter grains by means of a texturizer and then the butter grains are converted into a butter mass; e. the current consumption for operating the after-churning drum is measured in step b., and/or the current consumption for operating the texturizer is measured in step d., and f. the transfer from step b. to step c. is monitored, controlled and regulated depending on the measurement in step e.