mhurhangee/patent-ind-claim-en huggingface dataset:
A method for adjusting a banknote processing machine , wherein threshold values of sensors for recognizing banknotes unfit for circulation due to soiling and/or damage are defined by a control device , having the steps of: - selecting at least one banknote fit for circulation, - selecting at least one banknote unfit for circulation, - jointly processing the selected banknotes by means of the banknote processing machine, characterized by the steps of: - specifying a rate for banknotes unfit for circulation by means of an input/output device , - storing the data of at least one of the sensors produced during the processing of the banknotes, - defining at least one threshold value for the at least one sensor by evaluating the stored data of the at least one sensor by the control device , wherein the control device analyzes how great the soiling and/or the damage of the individual selected banknotes is, and, on the basis of this analysis, employs for defining the at least one threshold value the data of a number of selected banknotes which have the greatest soiling and/or damage, said number corresponding to the specified rate. - selecting at least one banknote fit for circulation, - selecting at least one banknote unfit for circulation, - jointly processing the selected banknotes by means of the banknote processing machine, - specifying a rate for banknotes unfit for circulation by means of an input/output device , - storing the data of at least one of the sensors produced during the processing of the banknotes, - defining at least one threshold value for the at least one sensor by evaluating the stored data of the at least one sensor by the control device , wherein the control device analyzes how great the soiling and/or the damage of the individual selected banknotes is, and, on the basis of this analysis, employs for defining the at least one threshold value the data of a number of selected banknotes which have the greatest soiling and/or damage, said number corresponding to the specified rate.
A front loader comprising: a working tool ; and an attachment body to which the working tool is attached, including: a lock pin configured to attach and fix the working tool; a lock lever configured to move the lock pin between a releasing position and an attaching position; and a pushing member configured to bias the lock pin toward the attaching position, characterized in that the attachment body has: a latching portion having: a holding mechanism configured to hold the lock lever at the releasing position; and another mechanism configured to move the lock lever to the attaching position; a working tool detection lever having the latching portion and being configured to release the holding of the lock lever in attachment of the working tool, and the other mechanism is configured to move the lock lever to the attaching position by a pushing force of the pushing member when the latching portion of the working tool detection lever releases the holding of the lock lever. a working tool ; and an attachment body to which the working tool is attached, including: a lock pin configured to attach and fix the working tool; a lock lever configured to move the lock pin between a releasing position and an attaching position; and a pushing member configured to bias the lock pin toward the attaching position, characterized in that a lock pin configured to attach and fix the working tool; a lock lever configured to move the lock pin between a releasing position and an attaching position; and a pushing member configured to bias the lock pin toward the attaching position, characterized in that the attachment body has: a latching portion having: a holding mechanism configured to hold the lock lever at the releasing position; and another mechanism configured to move the lock lever to the attaching position; a working tool detection lever having the latching portion and being configured to release the holding of the lock lever in attachment of the working tool, and a latching portion having: a holding mechanism configured to hold the lock lever at the releasing position; and another mechanism configured to move the lock lever to the attaching position; a holding mechanism configured to hold the lock lever at the releasing position; and another mechanism configured to move the lock lever to the attaching position; a working tool detection lever having the latching portion and being configured to release the holding of the lock lever in attachment of the working tool, and the other mechanism is configured to move the lock lever to the attaching position by a pushing force of the pushing member when the latching portion of the working tool detection lever releases the holding of the lock lever.
A locking device comprising: a lever member configured to sway around a first rotation axis and including a restriction part configured to restrict an operation of a handle , a hole , and an attaching portion where a moving member configured to move in accordance with an operation of an electromagnetic actuator is attached; and a pressure member disposed in the hole and configured to make a first back-and-forth movement in the hole in accordance with an unlocking operation of a key (K), wherein the pressure member moves the restriction part from a position for restricting the operation of the handle to a position for allowing the operation of the handle by swaying the lever member around the first rotation axis by pressing a first portion (S1) in a forward movement of the first back-and-forth movement, and moves away from the first portion (S1) without swaying the lever member in a backward movement of the first back-and-forth movement, the first portion being a portion of an inner peripheral surface of the hole . a lever member configured to sway around a first rotation axis and including a restriction part configured to restrict an operation of a handle , a hole , and an attaching portion where a moving member configured to move in accordance with an operation of an electromagnetic actuator is attached; and a pressure member disposed in the hole and configured to make a first back-and-forth movement in the hole in accordance with an unlocking operation of a key (K), wherein the pressure member moves the restriction part from a position for restricting the operation of the handle to a position for allowing the operation of the handle by swaying the lever member around the first rotation axis by pressing a first portion (S1) in a forward movement of the first back-and-forth movement, and moves away from the first portion (S1) without swaying the lever member in a backward movement of the first back-and-forth movement, the first portion being a portion of an inner peripheral surface of the hole .
A process for transverse tensile testing of building materials, comprising the following steps: - preparation of a test body from the building material, the test body having a predetermined geometry (S112); - adhesion of the test piece between a first yoke and a second yoke by means of an adhesive; - pressing on respective adhesive surfaces of the test piece, the first yoke and the second yoke; - allowing the adhesive to cure; and - application of a transverse tensile force until the fracture of the test piece (S150), characterised in that in the adhesion step a defined quantity of adhesive is used and the pressing is carried out with a defined pressing force in a defined and limited position relative to one another of the test piece, the first yoke and the second yoke in such a way that a movement of the test piece on the first yoke and of the second yoke on the test piece is limited in each case by positioning to a corner stop. - preparation of a test body from the building material, the test body having a predetermined geometry (S112); - adhesion of the test piece between a first yoke and a second yoke by means of an adhesive; - pressing on respective adhesive surfaces of the test piece, the first yoke and the second yoke; - allowing the adhesive to cure; and - application of a transverse tensile force until the fracture of the test piece (S150), characterised in that
A heater for heating an electrically conductive fluid comprising: (a) a structure ; (b) a plurality of electrodes mounted to the structure with spaces between neighboring ones of the electrodes, the structure being adapted to maintain the electrodes in contact with the fluid with fluid in the spaces , so that fluid in the spaces contacts the electrodes and electrically connects neighboring electrodes to one another; (c) an electrical power supply having at least two poles, the power supply connection being operable to supply different electrical potentials to different ones of the poles ; and (d) power switches electrically connected between at least some of the electrodes and the poles, the power switches being operable to selectively connect the electrodes to the poles and to selectively disconnect electrodes from the poles, the power switches being operable to connect and disconnect electrodes so that the electrodes include at least first and second connected electrodes connected to different poles of the power supply and first and second isolated electrodes disconnected from the poles; characterized by (e) shunting switches electrically connected to at least some of the electrodes , the shunting switches being operable to selectively form a shunt connection between the first and second isolated electrodes. (a) a structure ; (b) a plurality of electrodes mounted to the structure with spaces between neighboring ones of the electrodes, the structure being adapted to maintain the electrodes in contact with the fluid with fluid in the spaces , so that fluid in the spaces contacts the electrodes and electrically connects neighboring electrodes to one another; (c) an electrical power supply having at least two poles, the power supply connection being operable to supply different electrical potentials to different ones of the poles ; and (d) power switches electrically connected between at least some of the electrodes and the poles, the power switches being operable to selectively connect the electrodes to the poles and to selectively disconnect electrodes from the poles, the power switches being operable to connect and disconnect electrodes so that the electrodes include at least first and second connected electrodes connected to different poles of the power supply and first and second isolated electrodes disconnected from the poles; characterized by (e) shunting switches electrically connected to at least some of the electrodes , the shunting switches being operable to selectively form a shunt connection between the first and second isolated electrodes.
A compound of formula : wherein R 1 -R 3 each independently are each H or a monovalent substituent; at least one of R 1 and R 3 is -Y-R 6 ; and R 2 is -X-A or -Y-R 6 ; and any two of R 1 -R 5 optionally bind to each other to form a ring; X each independently is a divalent linking group or a direct bond; A each independently is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H; a metal atom; NR 7 4 wherein R 7 is H or an organic group; or imidazolium, pyridinium or phosphonium, each optionally substituted; Y each independently is a divalent linking group selected from -COO-, -OCO-, -CONR 8 -, and -NR 8 CO-, or a direct bond, wherein R 8 is H or an organic group; R 6 each independently is -R 10 -CO-R 11 , -R 10 -COO-R 11 , -R 11 , or -R 10 -NR 8 CO-R 11 , wherein R 8 is H or an organic group; R 10 is an alkylene group; and R 11 is an alkyl group optionally containing a substituent; -Y-R 6 each independently is -R 10 -CO-R 11 , -OCO-R 10 -CO-R 11 , -COO-R 10 -CO-R 11 , -OCO-R 10 -COO-R 11 , -COO-R 11 , -NR 8 CO-R 10 -CO-R 11 , or -CONR 8 -R 10 -NR 8 CO-R 11 , wherein R 8 , R 10 , and R 11 are defined as mentioned above; R 4 and R 5 are each H or C 1-4 -alkyl; and with R 6 containing none of a carbonyl, ester and amide group, X is a divalent linking group containing at least one of a carbonyl, ester, amide and sulfonyl group. R 1 -R 3 each independently are each H or a monovalent substituent; at least one of R 1 and R 3 is -Y-R 6 ; and R 2 is -X-A or -Y-R 6 ; and any two of R 1 -R 5 optionally bind to each other to form a ring; X each independently is a divalent linking group or a direct bond; A each independently is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H; a metal atom; NR 7 4 wherein R 7 is H or an organic group; or imidazolium, pyridinium or phosphonium, each optionally substituted; Y each independently is a divalent linking group selected from -COO-, -OCO-, -CONR 8 -, and -NR 8 CO-, or a direct bond, wherein R 8 is H or an organic group; R 6 each independently is -R 10 -CO-R 11 , -R 10 -COO-R 11 , -R 11 , or -R 10 -NR 8 CO-R 11 , wherein R 8 is H or an organic group; R 10 is an alkylene group; and R 11 is an alkyl group optionally containing a substituent; -Y-R 6 each independently is -R 10 -CO-R 11 , -OCO-R 10 -CO-R 11 , -COO-R 10 -CO-R 11 , -OCO-R 10 -COO-R 11 , -COO-R 11 , -NR 8 CO-R 10 -CO-R 11 , or -CONR 8 -R 10 -NR 8 CO-R 11 , wherein R 8 , R 10 , and R 11 are defined as mentioned above; -R 10 -CO-R 11 , -OCO-R 10 -CO-R 11 , -COO-R 10 -CO-R 11 , -OCO-R 10 -COO-R 11 , -COO-R 11 , -NR 8 CO-R 10 -CO-R 11 , or -CONR 8 -R 10 -NR 8 CO-R 11 , wherein R 8 , R 10 , and R 11 are defined as mentioned above; R 4 and R 5 are each H or C 1-4 -alkyl; and
A steel composition comprising, in percentages by weight of the total composition: Carbon: 0.06-0.20; Chromium: 2.5-5.0; Molybdenum: 4.0-6.0; Tungsten: 0.01-3.0; Vanadium: 1.0-3.0; Nickel: 2.0-4.0; Cobalt: 9.0-12.5; Iron: remainder as well as the inevitable impurities in an amount of at most 1 wt%, optionally further comprising one or more of the following elements: Niobium: ≤ 2.0; Nitrogen: ≤ 0.50; Silicon: ≤ 0.70; Manganese: ≤ 0.70; Aluminum: ≤0.15; the combined niobium + vanadium content being in the range 1.0-3.5; and the carbon + nitrogen content being in the range 0.06-0.50. Carbon: 0.06-0.20; Chromium: 2.5-5.0; Molybdenum: 4.0-6.0; Tungsten: 0.01-3.0; Vanadium: 1.0-3.0; Nickel: 2.0-4.0; Cobalt: 9.0-12.5; Iron: remainder as well as the inevitable impurities in an amount of at most 1 wt%, optionally further comprising one or more of the following elements: Niobium: ≤ 2.0; Nitrogen: ≤ 0.50; Silicon: ≤ 0.70; Manganese: ≤ 0.70; Aluminum: ≤0.15; Niobium: ≤ 2.0; Nitrogen: ≤ 0.50; Silicon: ≤ 0.70; Manganese: ≤ 0.70; Aluminum: ≤0.15; the combined niobium + vanadium content being in the range 1.0-3.5; and the carbon + nitrogen content being in the range 0.06-0.50.
A method comprising: controlling receiving, at a node , subframe type configuration information, said subframe type configuration information defining at least one subframe type of a group of subframes to be used in a secondary cell, said secondary cell configured to provide at least one of licensed-assisted access, licensed shared access and co-primary sharing access; and using said subframe type configuration information to cause the node to operate in accordance with the configuration in the secondary cell, wherein said subframe type configuration information is used by the node to determine when to perform at least one of a listen before talk procedure, channel state information measurements and feedback and control channel blind decoding. controlling receiving, at a node , subframe type configuration information, said subframe type configuration information defining at least one subframe type of a group of subframes to be used in a secondary cell, said secondary cell configured to provide at least one of licensed-assisted access, licensed shared access and co-primary sharing access; and using said subframe type configuration information to cause the node to operate in accordance with the configuration in the secondary cell, wherein said subframe type configuration information is used by the node to determine when to perform at least one of a listen before talk procedure, channel state information measurements and feedback and control channel blind decoding.
A medical device, comprising: a vascular access device, wherein the vascular access device forms part of an extravascular system and is an adapter system for at least two other vascular access devices, wherein the adapter system includes: an adapter for a catheter , a gas permeable vent, wherein at least a portion of the vent remains with the adapter after the vent is closed, the gas permeable vent comprising: a ventable end cap attached to the adapter , the ventable end cap including a body having an open channel containing an elastomeric septum ; a removable vent plug secured to the ventable end cap , wherein the ventable end cap seals to close the vent and remains on the adapter after the removable vent plug is removed from the adapter , the vent plug having a body , an air permeable material and a cannula , wherein the cannula passes through a hole of the septum , characterized in that the vent plug includes walls extended beyond the end of the cannula and secured to the exterior of the ventable end cap . a vascular access device, wherein the vascular access device forms part of an extravascular system and is an adapter system for at least two other vascular access devices, wherein the adapter system includes: an adapter for a catheter , a gas permeable vent, wherein at least a portion of the vent remains with the adapter after the vent is closed, the gas permeable vent comprising: a ventable end cap attached to the adapter , the ventable end cap including a body having an open channel containing an elastomeric septum ; a removable vent plug secured to the ventable end cap , wherein the ventable end cap seals to close the vent and remains on the adapter after the removable vent plug is removed from the adapter , an adapter for a catheter , a gas permeable vent, wherein at least a portion of the vent remains with the adapter after the vent is closed, the gas permeable vent comprising: a ventable end cap attached to the adapter , the ventable end cap including a body having an open channel containing an elastomeric septum ; a removable vent plug secured to the ventable end cap , wherein the ventable end cap seals to close the vent and remains on the adapter after the removable vent plug is removed from the adapter , a ventable end cap attached to the adapter , the ventable end cap including a body having an open channel containing an elastomeric septum ; a removable vent plug secured to the ventable end cap , wherein the ventable end cap seals to close the vent and remains on the adapter after the removable vent plug is removed from the adapter , the vent plug having a body , an air permeable material and a cannula , wherein the cannula passes through a hole of the septum , characterized in that the vent plug includes walls extended beyond the end of the cannula and secured to the exterior of the ventable end cap .
A tire comprising: an electronic module including an electronic component and a rubber composition covering the electronic component; and an adjacent rubber member adjacent to the electronic module, wherein a difference in complex elastic modulus E* at 60°C between the rubber composition and the adjacent rubber member is not greater than 2.0 MPa, wherein the complex elastic modulus E* is measured under the conditions of a frequency of 10 Hz, an initial strain of 10%, and a dynamic strain of 1%, an amount of carbon black per 100 parts by mass of a rubber component in the rubber composition is 10 to 50 parts by mass, the rubber composition has a volume of 500 to 10000 mm 3 , and the rubber composition has a relative dielectric constant of 7 or less at 915 MHz under the condition of 23°C. a difference in complex elastic modulus E* at 60°C between the rubber composition and the adjacent rubber member is not greater than 2.0 MPa, wherein the complex elastic modulus E* is measured under the conditions of a frequency of 10 Hz, an initial strain of 10%, and a dynamic strain of 1%, an amount of carbon black per 100 parts by mass of a rubber component in the rubber composition is 10 to 50 parts by mass, the rubber composition has a volume of 500 to 10000 mm 3 , and the rubber composition has a relative dielectric constant of 7 or less at 915 MHz under the condition of 23°C.
A method for making a microarray assembly, comprising: unrolling a substrate film by one or more substrate film reels ; printing microarrays onto the unrolled substrate film ; laminating a spacer film on top of the printed substrate film , wherein the spacer film is pre-cut to provide space for an array chamber prior to the placing step and is placed on top of the printed substrate film by one or more spacer film reels ; laminating a cover film on top of the spacer film to form a layered microarray structure; and cutting the layered microarray structure into individual microarray assemblies. unrolling a substrate film by one or more substrate film reels ; printing microarrays onto the unrolled substrate film ; laminating a spacer film on top of the printed substrate film , wherein the spacer film is pre-cut to provide space for an array chamber prior to the placing step and is placed on top of the printed substrate film by one or more spacer film reels ; laminating a cover film on top of the spacer film to form a layered microarray structure; and cutting the layered microarray structure into individual microarray assemblies.
A method for reusing a control channel configuration associated with a physical uplink control channel, PUCCH, performed by an access device , the method comprising: assigning a PUCCH resource; sending a configuration of the PUCCH resource to a user agent ; receiving a transmission from the user agent using the PUCCH resource; re-establishing time alignment with the user agent through a random access procedure after a time alignment timer expires at the user agent , wherein the step of re-establishing comprises: receiving an uplink scheduling transmission from the user agent , the uplink scheduling transmission comprising a CRNTI associated with the user agent ; determining if scheduling request, SR, resources are allocated to the user agent associated with the CRNTI, and if SR resources are allocated to the user agent , the access device recognizes that uplink synchronization with the user agent has been lost; determines if the PUCCH resource allocated to the user agent associated with the C-RNTI is still valid; and if the PUCCH resource is still valid, transmits a message to the user agent indicating that the PUCCH resource is still valid; and receiving from the user agent a transmission using the PUCCH resource associated with the configuration of the PUCCH resource, if still valid, after re-establishing time alignment through the random access procedure and receiving said message. assigning a PUCCH resource; sending a configuration of the PUCCH resource to a user agent ; receiving a transmission from the user agent using the PUCCH resource; re-establishing time alignment with the user agent through a random access procedure after a time alignment timer expires at the user agent , wherein the step of re-establishing comprises: receiving an uplink scheduling transmission from the user agent , the uplink scheduling transmission comprising a CRNTI associated with the user agent ; determining if scheduling request, SR, resources are allocated to the user agent associated with the CRNTI, receiving an uplink scheduling transmission from the user agent , the uplink scheduling transmission comprising a CRNTI associated with the user agent ; determining if scheduling request, SR, resources are allocated to the user agent associated with the CRNTI, and if SR resources are allocated to the user agent , the access device recognizes that uplink synchronization with the user agent has been lost; determines if the PUCCH resource allocated to the user agent associated with the C-RNTI is still valid; and if the PUCCH resource is still valid, transmits a message to the user agent indicating that the PUCCH resource is still valid; and receiving from the user agent a transmission using the PUCCH resource associated with the configuration of the PUCCH resource, if still valid, after re-establishing time alignment through the random access procedure and receiving said message.