mhurhangee/patent-ind-claim-en huggingface dataset:
A device for fixing a blank to a modular support system, which comprises the combination of a body having cylindrical symmetry and a threaded fixing element having a stem and a head , said body being provided at one end with a centering collar and, in a central region, with a perimetric recess that defines an engagement undercut, said body having an axial through hole with an open end for resting the head of said threaded fixing element , said axial through hole being open onto a resting seat for the head of said threaded fixing element , said resting seat having a bottom and a larger diameter than the outside diameter of the stem , said head having a smaller outside diameter than the corresponding internal dimension of said resting seat and a larger outside diameter than the inner diameter of the axial through hole , said axial through hole having a larger diameter than the outside diameter of the stem , characterized in that said head of said threaded fixing element has a resting surface with a substantially spherical geometry and in that between said head and the bottom of said seat there is provided a resting ring having an adapted contact surface which is contoured to rest said resting surface of said fixing element and facilitate the rotary motion of the spherical surface of the head of the threaded element , said resting ring having an inside diameter of dimensions which are such as to not interfere with the rotation of the stem of the threaded element and an outside diameter that is smaller than the corresponding internal dimension of the seat and larger than said through hole , the arrangement being such that said threaded element is free to translate radially with respect to the axis of said body having cylindrical symmetry and being free to rotate about the center of said substantially spherical surface with said head and said resting ring accommodated into said seat .
Brake system for motor vehicles, having - a master brake cylinder (HZE) and a floating piston (SK) arranged therein, which separates a first and a second pressure chamber (DR1, DR2) from one another in a sealing manner, the first pressure chamber (DR1) being hydraulically connected to a first brake circuit (BK I) and the second pressure chamber (DR2) being hydraulically connected to a second brake circuit (BK II) - a pressure fluid reservoir under atmospheric pressure, - wheel brakes (RB1-RB4), - an electrically controllable pressure supply device (DE) for pressurizing and depressurizing the wheel brakes (RB1-4) - a valve block with a de-energized open inlet valve/switching valve (SV1, SV2, SV3, SV4) for each wheel brake (RB1-4) and with at least one outlet valve (AV1-4), - each wheel brake (RB1-4) being hydraulically connectable to a pressure chamber (DR1, DR2) of the master brake cylinder (HZE) via the corresponding switching valve (SV1, SV2, SV3, SV4) and also being hydraulically connected or connectable to the pressure supply unit (DE) directly or via separating valves (TV1, TV2), each brake circuit (BK I, BK II) being hydraulically connected to the pressure supply unit (DE) or being hydraulically connectable to the pressure supply unit (DE) by means of at least one controllable valve (TV1, TV2, TV2b), characterized in that both pressure chambers (DR1, DR2) are pressurized, at least in normal brake booster operation, both during pressure build-up and pressure reduction in at least one wheel brake (RB1, RB2, RB3, RB4) with a pressure which corresponds to the pressure generated by the pressure supply device (DE), and in that in braking situations, in which the pressure change must take place in at least one wheel brake with high dynamics, in particular in ABS/ESP operation, the pressure change takes place simultaneously in at least one wheel brake (RB1, RB2, RB3, RB4) by means of the volume control of the pressure supply device (DE) and a pressure reduction takes place in at least one other wheel brake, in particular simultaneously, via at least one outlet valve (AV). - a master brake cylinder (HZE) and a floating piston (SK) arranged therein, which separates a first and a second pressure chamber (DR1, DR2) from one another in a sealing manner, the first pressure chamber (DR1) being hydraulically connected to a first brake circuit (BK I) and the second pressure chamber (DR2) being hydraulically connected to a second brake circuit (BK II) - a pressure fluid reservoir under atmospheric pressure, - wheel brakes (RB1-RB4), - an electrically controllable pressure supply device (DE) for pressurizing and depressurizing the wheel brakes (RB1-4) - a valve block with a de-energized open inlet valve/switching valve (SV1, SV2, SV3, SV4) for each wheel brake (RB1-4) and with at least one outlet valve (AV1-4), - each wheel brake (RB1-4) being hydraulically connectable to a pressure chamber (DR1, DR2) of the master brake cylinder (HZE) via the corresponding switching valve (SV1, SV2, SV3, SV4) and also being hydraulically connected or connectable to the pressure supply unit (DE) directly or via separating valves (TV1, TV2),
A communication method, comprising: sending, by a cellular base station (200-1) configured to constitute an Evolved Universal Terrestrial Radio Access Network, E-UTRAN , a status request message that requests a measurement for access points included in an access point group, to a wireless LAN termination node configured to manage a wireless LAN access point , wherein the status request message includes a plurality of pieces of wireless LAN identification information and a type of resource status to be measured for the access points; receiving, by the wireless LAN termination node , the status request message from the cellular base station (200-1); and sending, by the wireless LAN termination node , a report of the requested measurement based on the status request message, wherein the status request message is sent via an interface formed between the cellular base station (200-1) and the wireless LAN termination node , and the status request message is a message for causing the wireless LAN termination node to initiate a requested measurement according to parameters given in the status request message. sending, by a cellular base station (200-1) configured to constitute an Evolved Universal Terrestrial Radio Access Network, E-UTRAN , a status request message that requests a measurement for access points included in an access point group, to a wireless LAN termination node configured to manage a wireless LAN access point , wherein the status request message includes a plurality of pieces of wireless LAN identification information and a type of resource status to be measured for the access points; receiving, by the wireless LAN termination node , the status request message from the cellular base station (200-1); and sending, by the wireless LAN termination node , a report of the requested measurement based on the status request message, wherein the status request message is sent via an interface formed between the cellular base station (200-1) and the wireless LAN termination node , and the status request message is a message for causing the wireless LAN termination node to initiate a requested measurement according to parameters given in the status request message.
A protein comprising: a) a binding region capable of specifically binding at least one extracellular target biomolecule, b) a Shiga toxin A Subunit effector region comprising a polypeptide capable of exhibiting at least one Shiga toxin function selected from the group consisting of: cellular internalization, subcellular routing, and cytotoxicity; wherein the polypeptide comprises or consists of an amino acid sequence that is at least 85% identical to an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and c) a carboxy-terminal endoplasmic reticulum retention/retrieval signal motif of a member of the KDEL family; wherein the protein is linked to an additional exogenous material for delivery into a cell said cell being physically coupled with the extracellular target biomolecule of said protein. a) a binding region capable of specifically binding at least one extracellular target biomolecule, b) a Shiga toxin A Subunit effector region comprising a polypeptide capable of exhibiting at least one Shiga toxin function selected from the group consisting of: cellular internalization, subcellular routing, and cytotoxicity; wherein the polypeptide comprises or consists of an amino acid sequence that is at least 85% identical to an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and c) a carboxy-terminal endoplasmic reticulum retention/retrieval signal motif of a member of the KDEL family; wherein the protein is linked to an additional exogenous material for delivery into a cell said cell being physically coupled with the extracellular target biomolecule of said protein.
An undergarment , comprising: a body having a substantially tubular shape and configured to at least partially surround a torso of a user, the body comprising: a pouch region about a front surface of the body ; and a stitch region at least partially bordering the pouch region , the stitch region having less lateral stretch than a remainder of the body ; the stitch region comprising held stitches, the held stitches at least partially bordering the pouch region , characterized in that the stitch region comprises a first stitch area along a periphery of the pouch region and a second stitch area between the pouch region and the first stitch area, the second stitch area comprising the held stitches and having less lateral stretch than the first stitch area. a pouch region about a front surface of the body ; and a stitch region at least partially bordering the pouch region , the stitch region having less lateral stretch than a remainder of the body ; the stitch region comprising held stitches, the held stitches at least partially bordering the pouch region , characterized in that the stitch region comprises a first stitch area along a periphery of the pouch region and a second stitch area between the pouch region and the first stitch area, the second stitch area comprising the held stitches and having less lateral stretch than the first stitch area.
An absorber tile element (102a-f, 202a, 302a) comprising compressed mineral fiber material and having a first major surface (107a-b, 107e-f, 207a), an opposing second major surface (108a-b, 108e-f, 308a), and at least one side edge surface (109a-f, 209a, 309a) extending between the first major surface (107a-b, 107e-f, 207a) and the second major surface (108a-b, 108e-f, 308a), an anchor element (106a-f) associated with one of the first major surface (107a-b, 107e-f, 207a) and the second major surface (108a-b, 108e-f, 308a) or one of the at least one side edge surfaces (109a-f, 209a, 309a) of the absorber tile element (102a-f, 202a, 302a), wherein the anchor element (106a-f, 206a, 306a) comprises a head portion (110a-b, 110e-f) and a threaded portion (112a-b, 112e-f), the threaded portion (112a-b, 112e-f) being threaded into the absorber tile element (102a-f) from the surface (107a-b, 107e-f; 108a-b, 108e-f; 209a; 309a) associated with the anchor element (106a-f, 206a, 306a) such that the head portion (110a-b, 110e-f) becomes recessed in the absorber tile element (102a-f, 202a, 302a), the head portion (110a-b, 110e-f) defining an open cavity (114a-b, 114e-f) facing a top surface (116a-b, 116e-f) of the head portion (110a-b, 110e-f), characterized in that an engagement member (118a-b, 118e-f), in the form of an elongated bar structure traversing the cavity (114a, 114e-f) of the head portion (110a, 110e-f) or in the form of a loop structure, configured for direct hooking engagement with a hook element (124a-b, 124e-f) is arranged in the cavity (114a-b, 114e-f) such that it does not protrude beyond the top surface (116a-b, 116e-f) of the head portion (110a-b, 110e-f). the threaded portion (112a-b, 112e-f) being threaded into the absorber tile element (102a-f) from the surface (107a-b, 107e-f; 108a-b, 108e-f; 209a; 309a) associated with the anchor element (106a-f, 206a, 306a) such that the head portion (110a-b, 110e-f) becomes recessed in the absorber tile element (102a-f, 202a, 302a), the head portion (110a-b, 110e-f) defining an open cavity (114a-b, 114e-f) facing a top surface (116a-b, 116e-f) of the head portion (110a-b, 110e-f), characterized in that an engagement member (118a-b, 118e-f), in the form of an elongated bar structure traversing the cavity (114a, 114e-f) of the head portion (110a, 110e-f) or in the form of a loop structure, configured for direct hooking engagement with a hook element (124a-b, 124e-f) is arranged in the cavity (114a-b, 114e-f) such that it does not protrude beyond the top surface (116a-b, 116e-f) of the head portion (110a-b, 110e-f).
A medical device comprising: an elongated shaft portion ; a plurality of electrically independent electrode portions disposed on a distal side of the shaft portion , extending along a length direction of the shaft portion , and deformable in a radial direction of the shaft portion ; and a plurality of electrically independent conductors including a buried portion buried in the shaft portion , and allowing a current to flow to the electrode portions , characterised in that each of the plurality of conductors has a protruding portion protruding from a distal surface of the shaft portion and connected to the electrode portion and each of the protruding portions is connected to each of the electrode portions different from each other, wherein each of the protruding portions is parallel to an axis (X) of the shaft portion , and at least a portion of the buried portion has a spiral shape wound around the axis of the shaft portion. an elongated shaft portion ; a plurality of electrically independent electrode portions disposed on a distal side of the shaft portion , extending along a length direction of the shaft portion , and deformable in a radial direction of the shaft portion ; and a plurality of electrically independent conductors including a buried portion buried in the shaft portion , and allowing a current to flow to the electrode portions , characterised in that each of the plurality of conductors has a protruding portion protruding from a distal surface of the shaft portion and connected to the electrode portion and each of the protruding portions is connected to each of the electrode portions different from each other, wherein each of the protruding portions is parallel to an axis (X) of the shaft portion , and at least a portion of the buried portion has a spiral shape wound around the axis of the shaft portion.
A method by a base station , the method comprising: calculating a transmission delay time that is an average of waiting times of a plurality of packets transmitted for a predetermined time; identifying whether the transmission delay time is greater than a preset delay time threshold value; rearranging, in case that the transmission delay time is greater than the preset delay time threshold value, a transmission order of packets by moving a packet to be first transmitted to a predetermined position in a buffer ; and transmitting, to a terminal, the packets based on the rearranged transmission order of the packets in the buffer, wherein the predetermined position is determined based on a number of duplication acknowledge, DUP ACK, signals to be received from the terminal and transmitted to a server , and wherein a window size for a packet transmission is decreased by the server based on the rearranged transmission order of the packets. calculating a transmission delay time that is an average of waiting times of a plurality of packets transmitted for a predetermined time; identifying whether the transmission delay time is greater than a preset delay time threshold value; rearranging, in case that the transmission delay time is greater than the preset delay time threshold value, a transmission order of packets by moving a packet to be first transmitted to a predetermined position in a buffer ; and transmitting, to a terminal, the packets based on the rearranged transmission order of the packets in the buffer, wherein the predetermined position is determined based on a number of duplication acknowledge, DUP ACK, signals to be received from the terminal and transmitted to a server , and wherein a window size for a packet transmission is decreased by the server based on the rearranged transmission order of the packets.
A semi-finished product for a device for the in-vitro production and culturing of cell layers (10.1, 10.2, ...) with two first and second cavities (2.1, 2.2) arranged one above the other and separated from one another by a porous first membrane (11.1) with two lateral surfaces, wherein - the first cavity (2.1) is formed in the upper surface and the second cavity (2.2) is formed in the lower surface of a base plate , - a second wall (2.1.2) is formed by one of the lateral surfaces of the first membrane (11.1) as a second cell substrate (6.2) of the first cavity (2.1) and a second wall (2.2.2) is formed by the other of the lateral surfaces as a third cell substrate (6.3) of the second cavity (2.2), - the first cavity (2.1) is tapered towards its ends and is rectangular in its central portion, and one of the tapered ends terminates in a first inlet opening (4.1) for the inlet of a first fluid flow (12.1) into the first cavity (2.1) and the other of the tapered ends terminates in a first outlet opening (5.1) for the outlet of the first fluid flow (12.1) from the first cavity (2.1), thereby causing a laminar flow of the first fluid flow (12.1), and - the second cavity (2.2) is rectangularly shaped and connected, by channel-like constrictions, to a second inlet opening (4.2) for the inlet of a second fluid stream (12.2) into the second cavity (2.2) and to a second outlet opening (5.2) for the outlet of the second fluid stream (12.2) from the second cavity (2.2). - the first cavity (2.1) is formed in the upper surface and the second cavity (2.2) is formed in the lower surface of a base plate , - a second wall (2.1.2) is formed by one of the lateral surfaces of the first membrane (11.1) as a second cell substrate (6.2) of the first cavity (2.1) and a second wall (2.2.2) is formed by the other of the lateral surfaces as a third cell substrate (6.3) of the second cavity (2.2), - the first cavity (2.1) is tapered towards its ends and is rectangular in its central portion, and one of the tapered ends terminates in a first inlet opening (4.1) for the inlet of a first fluid flow (12.1) into the first cavity (2.1) and the other of the tapered ends terminates in a first outlet opening (5.1) for the outlet of the first fluid flow (12.1) from the first cavity (2.1), thereby causing a laminar flow of the first fluid flow (12.1), and - the second cavity (2.2) is rectangularly shaped and connected, by channel-like constrictions, to a second inlet opening (4.2) for the inlet of a second fluid stream (12.2) into the second cavity (2.2) and to a second outlet opening (5.2) for the outlet of the second fluid stream (12.2) from the second cavity (2.2).
A method of virtualizing a network function among an ad-hoc group, the ad-hoc group comprising a plurality of mobile terminals located in close proximity of each other, the method comprising: determining the number of mobile terminals in the ad-hoc group; estimating a duration that the plurality of mobile terminals in the ad-hoc group will remain in close proximity, and selecting the ad-hoc group to execute the network function based on the number of mobile terminals in the ad-hoc group and whether the estimated duration is suitable for executing the network function. determining the number of mobile terminals in the ad-hoc group; estimating a duration that the plurality of mobile terminals in the ad-hoc group will remain in close proximity, and selecting the ad-hoc group to execute the network function based on the number of mobile terminals in the ad-hoc group and whether the estimated duration is suitable for executing the network function.
A stroller comprising: a stroller frame ; a reversible member pivoted to the stroller frame ; and: a reversible mechanism locking the reversible member at different positions relative to the stroller frame and comprising: anchoring portions disposed on at least two different positions of the stroller frame ; a sliding sleeve movably jacketing the reversible member, the sliding sleeve being selectively engageable with any one of the anchoring portions for locking the reversible member at the different positions relative to the stroller frame ; and a release actuator movably disposed on the reversible member and linked with the sliding sleeve , the sliding sleeve being switchable between a locking position and a releasing position with movement of the release actuator or being directly operated for locking or releasing the anchoring portion , characterized by an avoiding hole , which is formed on the release actuator and comprises an opening , wherein the avoiding hole is a long hole for guiding and limiting movement of the release actuator . a stroller frame ; a reversible member pivoted to the stroller frame ; and: a reversible mechanism locking the reversible member at different positions relative to the stroller frame and comprising: anchoring portions disposed on at least two different positions of the stroller frame ; a sliding sleeve movably jacketing the reversible member, the sliding sleeve being selectively engageable with any one of the anchoring portions for locking the reversible member at the different positions relative to the stroller frame ; and a release actuator movably disposed on the reversible member and linked with the sliding sleeve , the sliding sleeve being switchable between a locking position and a releasing position with movement of the release actuator or being directly operated for locking or releasing the anchoring portion , characterized by an avoiding hole , which is formed on the release actuator and comprises an opening , wherein the avoiding hole is a long hole for guiding and limiting movement of the release actuator . anchoring portions disposed on at least two different positions of the stroller frame ; a sliding sleeve movably jacketing the reversible member, the sliding sleeve being selectively engageable with any one of the anchoring portions for locking the reversible member at the different positions relative to the stroller frame ; and a release actuator movably disposed on the reversible member and linked with the sliding sleeve , the sliding sleeve being switchable between a locking position and a releasing position with movement of the release actuator or being directly operated for locking or releasing the anchoring portion , characterized by an avoiding hole , which is formed on the release actuator and comprises an opening , wherein the avoiding hole is a long hole for guiding and limiting movement of the release actuator .